mhurhangee/patent-ind-claim-en huggingface dataset:
A polyamide-imide precursor comprising: in a molecular structure thereof, a first block obtained by copolymerizing monomers including dianhydride and diamine; a second block obtained by copolymerizing monomers including an aromatic dicarbonyl compound and the diamine; and a third block obtained by copolymerizing monomers including the aromatic dicarbonyl compound and aromatic diamine, wherein the dianhydride for forming the first block includes 2-bis(3,4-dicarboxyphenyl)hexafluoropropane dianhydride , and the diamine for forming the first block and the second block includes 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), and wherein the aromatic diamine for forming the third block is different from 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), which is the diamine for forming the first block and the second block. in a molecular structure thereof, a first block obtained by copolymerizing monomers including dianhydride and diamine; a second block obtained by copolymerizing monomers including an aromatic dicarbonyl compound and the diamine; and a third block obtained by copolymerizing monomers including the aromatic dicarbonyl compound and aromatic diamine, wherein the dianhydride for forming the first block includes 2-bis(3,4-dicarboxyphenyl)hexafluoropropane dianhydride , and the diamine for forming the first block and the second block includes 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), and wherein the aromatic diamine for forming the third block is different from 9,9-bis(3-fluoro-4-aminophenyl)fluorene (FFDA), which is the diamine for forming the first block and the second block.
Method for measuring the height of a target relative to the ground using a moving radar transmitting a detection signal towards said target, said radar being equipped with a transmission antenna array and with a reception antenna array , and characterized in that the measurement of said height (h 2 ) is obtained by estimating the frequency of at least one time-dependent amplitude modulation produced on said reception antenna array, said modulation being generated by the interference of the signals received directly from said target and the signals received after reflection on the ground, on the basis of the signals transmitted by said transmission antenna array, the measurement of said target height (h 2 ) is obtained, for a given time-dependent modulation, by applying the following equation: h 2 = λd 0 2 f ^ h 1 V h 2 being said estimated height; f̂ being the estimated frequency of said time-dependent amplitude modulation; h 1 being the height at which said detection signal is transmitted; d 0 being the distance from said radar to the target; V being the closing speed of said radar towards the target; λ being the wavelength of said radar. h 2 being said estimated height; f̂ being the estimated frequency of said time-dependent amplitude modulation; h 1 being the height at which said detection signal is transmitted; d 0 being the distance from said radar to the target; V being the closing speed of said radar towards the target; λ being the wavelength of said radar.
A display apparatus including: a metal substrate ; an electroluminescence display panel , including a first contact hole (H1), on the metal substrate ; characterized in that , the electroluminescence display panel includes a base voltage pad (VSS) adjacent to the first contact hole (H1); and the display apparatus includes: a first adhesive member , including a second contact hole (H2) exposing at least a portion of the base voltage pad (VSS), on the electroluminescence display panel ; and a conductive filler , filled in the first contact hole (H1) and the second contact hole (H2), electrically connecting the metal substrate and the base voltage pad (VSS). a metal substrate ; an electroluminescence display panel , including a first contact hole (H1), on the metal substrate ; characterized in that , the electroluminescence display panel includes a base voltage pad (VSS) adjacent to the first contact hole (H1); and the display apparatus includes: a first adhesive member , including a second contact hole (H2) exposing at least a portion of the base voltage pad (VSS), on the electroluminescence display panel ; and a conductive filler , filled in the first contact hole (H1) and the second contact hole (H2), electrically connecting the metal substrate and the base voltage pad (VSS). a first adhesive member , including a second contact hole (H2) exposing at least a portion of the base voltage pad (VSS), on the electroluminescence display panel ; and a conductive filler , filled in the first contact hole (H1) and the second contact hole (H2), electrically connecting the metal substrate and the base voltage pad (VSS).
A power usage state information transmission method, comprising: when a physical uplink shared channel, PUSCH, transmission exists in a subframe of a second cell, determining , by a terminal device, a virtual power headroom, PH, of the second cell corresponding to the terminal device based on a channel configuration information configured by a signaling, wherein the virtual PH corresponds to the subframe of the second cell and the virtual PH is determined by the formula: PH = P ̃ CMAX , c i − P O _ PUSCH , c 1 + α c 1 ⋅ PL c + f c i dB ; wherein c is the second cell, i is the index of the subframe of the second cell, P̃ CMAX,c ( i ) is virtual maximum transmit power based on a parameter assumption in the subframe i of the second cell, P O_PUSCH,c is an open-loop power control adjustment value when PUSCH transmission is granted by means of dynamic scheduling, α c is a partial path loss compensation value determined by a parameter of a higher layer configuration of a serving cell, PL c is a path loss of the second cell obtained through measurement by the terminal device, f c ( i ) is a closed-loop power control adjustment value; and sending , by the terminal device, the virtual PH to a first network device, and skipping sending a maximum transmit power corresponding to the virtual PH to the first network device, wherein the first network device is a network device that controls a first cell and the second cell is controlled by a second network device; wherein before the sending, by the terminal device, the virtual PH to the first network device, the method further comprises: receiving, by the terminal device, the signaling, wherein the signaling comprises the channel configuration information. wherein c is the second cell, i is the index of the subframe of the second cell, P̃ CMAX,c ( i ) is virtual maximum transmit power based on a parameter assumption in the subframe i of the second cell, P O_PUSCH,c is an open-loop power control adjustment value when PUSCH transmission is granted by means of dynamic scheduling, α c is a partial path loss compensation value determined by a parameter of a higher layer configuration of a serving cell, PL c is a path loss of the second cell obtained through measurement by the terminal device, f c ( i ) is a closed-loop power control adjustment value; and sending , by the terminal device, the virtual PH to a first network device, and skipping sending a maximum transmit power corresponding to the virtual PH to the first network device, wherein the first network device is a network device that controls a first cell and the second cell is controlled by a second network device; wherein before the sending, by the terminal device, the virtual PH to the first network device, the method further comprises: receiving, by the terminal device, the signaling, wherein the signaling comprises the channel configuration information.
A fluid processing system comprising: a cassette comprising a molded body having a plurality of valve stations and at least one pressure sensing station , wherein the pressure sensing station comprises a cap having an opening extending beyond the molded body ; a loading area configured to receive and hold the cassette , and configured to position the cassette onto a valve and sensor assembly , wherein the valve and sensor assembly comprises valve actuators and at least one pressure sensing transducer comprising a sensor post , the valve and sensor assembly configured to align respectively with the plurality of valve stations and the pressure sensing station ; wherein the opening of the cap is formed by an inner wall having a first diameter (A), an outer wall having a second diameter (B), and a contact surface connecting the inner and outer wall , wherein the contact surface includes a varying diameter that decreases from the second diameter (B) to the first diameter (A); wherein the sensor post comprises a ring disposed around a cylindrical body and positioned to engage with the contact surface of the cap to form a seal; and wherein the contact surface is disposed at an acute angle (α) relative to a vertical axis (Zc) of the seal, the acute angle (α) having a value in the range of 30 to 60 degrees. a cassette comprising a molded body having a plurality of valve stations and at least one pressure sensing station , wherein the pressure sensing station comprises a cap having an opening extending beyond the molded body ; a loading area configured to receive and hold the cassette , and configured to position the cassette onto a valve and sensor assembly , wherein the valve and sensor assembly comprises valve actuators and at least one pressure sensing transducer comprising a sensor post , the valve and sensor assembly configured to align respectively with the plurality of valve stations and the pressure sensing station ; wherein the opening of the cap is formed by an inner wall having a first diameter (A), an outer wall having a second diameter (B), and a contact surface connecting the inner and outer wall , wherein the contact surface includes a varying diameter that decreases from the second diameter (B) to the first diameter (A); wherein the sensor post comprises a ring disposed around a cylindrical body and positioned to engage with the contact surface of the cap to form a seal; and wherein the contact surface is disposed at an acute angle (α) relative to a vertical axis (Zc) of the seal, the acute angle (α) having a value in the range of 30 to 60 degrees.
A device-to-device, D2D, communication method, comprising: performing , by a terminal device using a same packet data convergence protocol, PDCP, entity, D2D communication in a long term evolution, LTE, standard and a new radio, NR, standard, wherein the PDCP entity corresponds to two radio link control, RLC, entities, and the two RLC entities comprise an RLC entity in the LTE standard and an RLC entity in the NR standard, wherein indication information is carried in a multiple access control, MAC, header or a MAC subheader, and used for indicating whether the two RLC entities adopt the same PDCP entity, and characterised in that a range of logical channel identifiers, LCIDs, used by a first entity of the two RLC entities when the first entity does not share the same PDCP entity with a second entity of the two RLC entities, does not overlap with a range of LCIDs used by the first entity when the first entity and the second RLC entity share the same PDCP entity. performing , by a terminal device using a same packet data convergence protocol, PDCP, entity, D2D communication in a long term evolution, LTE, standard and a new radio, NR, standard, wherein the PDCP entity corresponds to two radio link control, RLC, entities, and the two RLC entities comprise an RLC entity in the LTE standard and an RLC entity in the NR standard, wherein indication information is carried in a multiple access control, MAC, header or a MAC subheader, and used for indicating whether the two RLC entities adopt the same PDCP entity, and characterised in that a range of logical channel identifiers, LCIDs, used by a first entity of the two RLC entities when the first entity does not share the same PDCP entity with a second entity of the two RLC entities, does not overlap with a range of LCIDs used by the first entity when the first entity and the second RLC entity share the same PDCP entity.
A hand tool for hemiplegic persons with an active element for acting on an object and with a shaft which a. comprises a first shaft section where the active element is located and b. a second shaft section , wherein c. the first shaft section and the second shaft section are detachably connected to each other by way of a fastening device in such a way that, starting from the fastening device d. the first shaft section extends in a first shaft direction (W) and e. the second shaft section extends in a second shaft direction (G), wherein f. an angle between the first shaft direction (W) and the second shaft direction (G) differs from 0° and 180°, and g. the fastening device is designed in several parts and consists of at least one part with a semicircular cross-section and a flat part as an antagonist, and h. the cross-section of the entire fastening device can be altered by changing the distance of the parts of the fastening device from each other. a. comprises a first shaft section where the active element is located and b. a second shaft section , wherein c. the first shaft section and the second shaft section are detachably connected to each other by way of a fastening device in such a way that, starting from the fastening device d. the first shaft section extends in a first shaft direction (W) and e. the second shaft section extends in a second shaft direction (G), wherein f. an angle between the first shaft direction (W) and the second shaft direction (G) differs from 0° and 180°, and g. the fastening device is designed in several parts and consists of at least one part with a semicircular cross-section and a flat part as an antagonist, and h. the cross-section of the entire fastening device can be altered by changing the distance of the parts of the fastening device from each other.
A spring element for a contact force sensing medical catheter , the spring element comprising: a first ring ; a second ring spaced apart from the first ring , the second ring and the first ring coaxially aligned with a longitudinal axis of the spring element ; a plurality of struts connecting the first ring to the second ring and configured to permit elastic, relative axial and radial displacement between the first ring and the second ring ; and a plurality of interlocking features configured to limit the relative axial and radial displacement between the first ring and the second ring , characterized in that the plurality of interlocking features is disposed in six axially aligned rows 60 degrees apart and in that there are exactly six interlocking features at each strut . a first ring ; a second ring spaced apart from the first ring , the second ring and the first ring coaxially aligned with a longitudinal axis of the spring element ; a plurality of struts connecting the first ring to the second ring and configured to permit elastic, relative axial and radial displacement between the first ring and the second ring ; and a plurality of interlocking features configured to limit the relative axial and radial displacement between the first ring and the second ring , characterized in that the plurality of interlocking features is disposed in six axially aligned rows 60 degrees apart and in that there are exactly six interlocking features at each strut .
A plastic closure device for a container for parenteral pharmaceutical products in the form of a bottle provided with a neck , said closure device comprising a removable outer cap , formed by a cylindrical band closed at the top by a cover , said outer cap being provided with tearable weakenings to allow it to be removed by tearing, and snap-coupling means protruding inside the band ; characterized in that it comprises an inner cage provided with a head having a central opening and below which a skirt extends ending in a lower edge at which retaining means are provided for permanently engaging the neck of the bottle by snapping, and wherein said outer cap is engaged by snapping below the lower edge of the inner cage by means of said coupling means .
A multi-chip isolation (ISO) device package , comprising: a leadframe including leads or lead terminals , an interposer substrate comprising a top copper layer and a bottom metal layer , with a dielectric layer positioned between the top copper layer and the bottom metal layer , a first IC die comprising circuitry including a transmitter or a receiver and first bond pads attached top side up in the ISO device package; a second IC die comprising circuitry including a transmitter or a receiver and second bond pads attached top side up in the ISO device package; a laminate transformer attached to the top copper layer positioned lateral to the first and the second IC die; bondwires wirebonding respective ones of the first bond pads of the first IC die to first pads on the laminate transformer and to a first group of the leads or the lead terminals ; bondwires wirebonding respective ones of the second bond pads of the second IC die to second pads on the laminate transformer and to a second group of the leads or the lead terminals , and a mold compound providing encapsulation for the ISO device package, wherein the bottom metal layer is exposed from the ISO device package at least under the laminate transformer , a leadframe including leads or lead terminals , an interposer substrate comprising a top copper layer and a bottom metal layer , with a dielectric layer positioned between the top copper layer and the bottom metal layer , a first IC die comprising circuitry including a transmitter or a receiver and first bond pads attached top side up in the ISO device package; a second IC die comprising circuitry including a transmitter or a receiver and second bond pads attached top side up in the ISO device package; a laminate transformer attached to the top copper layer positioned lateral to the first and the second IC die; bondwires wirebonding respective ones of the first bond pads of the first IC die to first pads on the laminate transformer and to a first group of the leads or the lead terminals ; bondwires wirebonding respective ones of the second bond pads of the second IC die to second pads on the laminate transformer and to a second group of the leads or the lead terminals , and a mold compound providing encapsulation for the ISO device package, wherein the bottom metal layer is exposed from the ISO device package at least under the laminate transformer ,
Spring-loaded clamping terminal for clamping electrical conductors, having a clamping spring and having a busbar , the clamping spring having a contact leg , a spring arc adjoining the contact leg and a clamping leg adjoining the spring arc , and the clamping leg has a clamping edge for forming a clamping point with the adjacent busbar for a conductor to be clamped on, wherein the spring-loaded clamping terminal further comprises a frame member formed as a part separate from the clamping spring and the busbar and having a base portion , a bending portion adjoining the base portion , and a retaining portion adjoining the bending portion and spaced from the base portion , the contact leg of the clamping spring being fixed to the retaining portion , the spring-loaded clamping terminal being in the form of a self-supporting spring-loaded clamping terminal, characterized in that the retaining portion extends in extension of the direction in which the contact leg extends, the bending portion , in the insertion direction (L) of a conductor to be clamped, bounds a conductor receiving space behind the clamping point for receiving a free end of the electrical conductor, and the base portion extends from the bending portion towards the free end of the base portion in the opposite direction to the insertion direction (L) of a conductor to be clamped.
Stacking method for stacking wave winding wires (10, 10a-10f) to form a winding mat for a coil winding of a stator, said stacking method comprising the steps of: providing at least one magazine containing a plurality of similar wave winding wires in a receiving space , wherein the magazine is designed as a drop magazine such that the receiving space extends, with at least one directional component, in a vertical direction through the magazine , wherein the contour of the receiving space is adapted to the received wave winding wires , so that the wave winding wires are positioned at a plurality of guide devices at different locations of the boundary of the receiving space and are guided through the receiving space without changing their geometry, positioning a workpiece carrier which is provided with a retaining structure for a winding mat formed of a plurality of stacked wave winding wires (10, 10a-10f) in a first transfer position below the at least one magazine and depositing a wave winding wire from the at least one magazine at a first position (21.1) on the workpiece carrier, positioning the workpiece carrier in a second transfer position offset relative to the first transfer position below the at least one magazine , and depositing a further wave winding wire from the at least one magazine at a position (21.2, 21.2, 21.3) offset relative to the first position (21.1) on the workpiece carrier . providing at least one magazine containing a plurality of similar wave winding wires in a receiving space , wherein the magazine is designed as a drop magazine such that the receiving space extends, with at least one directional component, in a vertical direction through the magazine , wherein the contour of the receiving space is adapted to the received wave winding wires , so that the wave winding wires are positioned at a plurality of guide devices at different locations of the boundary of the receiving space and are guided through the receiving space without changing their geometry, positioning a workpiece carrier which is provided with a retaining structure for a winding mat formed of a plurality of stacked wave winding wires (10, 10a-10f) in a first transfer position below the at least one magazine and depositing a wave winding wire from the at least one magazine at a first position (21.1) on the workpiece carrier, positioning the workpiece carrier in a second transfer position offset relative to the first transfer position below the at least one magazine , and depositing a further wave winding wire from the at least one magazine at a position (21.2, 21.2, 21.3) offset relative to the first position (21.1) on the workpiece carrier .
A cutting and splitting device comprising a frame , a vertical feed channel supported to the frame and having a feed opening at the upper end for feeding a log being processed into the cutting and splitting device, at the lower end of the feed channel, moving in the transverse direction in relation thereto, a cutting blade with a power unit and a splitting blade for splitting the cut piece of log, and the cutting blade and the splitting blade form a jointly movable assembly, wherein the cutting and splitting device comprises below the cutting blade a fixed stopper against which the splitting blade is arranged to press and split the piece of log cut by the cutting blade, a stopper is provided below the fixed stopper and the path of movement of the splitting blade for receiving a log that falls down the feed channel and characterized in that the stopper is a length stopper for determining the length of the piece being cut therefrom, and the sides of the fixed stopper and the splitting blade comprise side support elements for guiding the piece of log past the splitting blade from both sides thereof, and the cutting blade , the splitting blade , the length stopper and the side support elements form a fixed and jointly movable assembly, which is a splitting chamber , inside which the cut piece of log is pressed against the fixed stopper so that the piece of log is forced through the splitting blade and out of the splitting chamber.