mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a first path configured to be tuned to a first frequency band for amplifying first signal components in a first frequency band; a second path configured to be tuned to a second frequency band for amplifying second signal components in a second frequency band; and cross-coupled circuitry having a first input coupled to the first path and a second input coupled to the second path and having a first output coupled to the second path and a second output coupled to the first path for generating interference cancellation signals to cancel interference between the first and second signal components in the respective first and second frequency bands; wherein the cross-coupled circuitry comprises: a first set of transistors, a first transistor of the first set of transistors having a gate coupled to the first path and a second transistor of the first set of transistors having a drain coupled to the second path; and a second set of transistors, a first transistor of the second set of transistors having a gate coupled to the second path and a second transistor of the second set of transistors having a drain coupled to the first path. a first path configured to be tuned to a first frequency band for amplifying first signal components in a first frequency band; a second path configured to be tuned to a second frequency band for amplifying second signal components in a second frequency band; and cross-coupled circuitry having a first input coupled to the first path and a second input coupled to the second path and having a first output coupled to the second path and a second output coupled to the first path for generating interference cancellation signals to cancel interference between the first and second signal components in the respective first and second frequency bands; wherein the cross-coupled circuitry comprises: a first set of transistors, a first transistor of the first set of transistors having a gate coupled to the first path and a second transistor of the first set of transistors having a drain coupled to the second path; and a second set of transistors, a first transistor of the second set of transistors having a gate coupled to the second path and a second transistor of the second set of transistors having a drain coupled to the first path. a first set of transistors, a first transistor of the first set of transistors having a gate coupled to the first path and a second transistor of the first set of transistors having a drain coupled to the second path; and a second set of transistors, a first transistor of the second set of transistors having a gate coupled to the second path and a second transistor of the second set of transistors having a drain coupled to the first path.
A vehicle comprising a tiltable cab , a connection arrangement (30; 130), and a boil-off pipe being arranged in connection to a rear side of the cab via the connection arrangement (30; 130), wherein the vehicle further comprises a fuel system having a chassis-mounted liquefied gas fuel tank for providing fuel to an engine of the vehicle , wherein evaporated gas is arranged to be evacuated from said tank via said boil-off pipe at a certain tank pressure, wherein said boil-off pipe is attached to the rear side of the cab , wherein said connection arrangement (30; 130) comprises a flexible tube (34; 134) arranged to be connected at one end to the tank and at the other end to the boil-off pipe , wherein said flexible tube (34; 134) is extendably and retractably arranged to accommodate a tilting movement of said cab .
A structure, comprising: a substrate ; an active device in an active device semiconductor region of the substrate; a microwave transmission line , on the substrate, having an electrical conductor electrically connected to the active device; and a plurality of microwave energy absorbing "dummy" fill elements on the substrate, wherein the "dummy" fill elements comprise microwave lossy material, wherein the microwave energy absorbing "dummy" fill elements have a resistivity at least an order of magnitude greater than a resistivity of the electrical conductor , wherein the microwave energy absorbing "dummy" fill elements are arranged in arrays outside of the active device semiconductor region , and wherein the microwave energy absorbing "dummy" fill elements are configured to provide uniform heating of the substrate during an anneal processing of the substrate. a substrate ; an active device in an active device semiconductor region of the substrate; a microwave transmission line , on the substrate, having an electrical conductor electrically connected to the active device; and a plurality of microwave energy absorbing "dummy" fill elements on the substrate, wherein the "dummy" fill elements comprise microwave lossy material, wherein the microwave energy absorbing "dummy" fill elements have a resistivity at least an order of magnitude greater than a resistivity of the electrical conductor , wherein the microwave energy absorbing "dummy" fill elements are arranged in arrays outside of the active device semiconductor region , and wherein the microwave energy absorbing "dummy" fill elements are configured to provide uniform heating of the substrate during an anneal processing of the substrate.
Method for producing a pole housing for an electric motor, - in which a tube jacket surface from a sheet material is provided, - in which the tube jacket surface from the sheet material is formed into a cylindrical pole tube in such a way that the longitudinal jacket edges of the tube jacket surface extending in the longitudinal direction (L) of the tube face each other, and - in which the longitudinal jacket edges of the tube jacket surface are connected to each other to form a closed pole tube , - wherein a provided cover is fastened positively and/or non-positively as a bearing shield to a front tube end of the pole tube , wherein at the tube end on the inner wall side a circumferential stepped contour with a radially extending bearing surface for supporting the cover and with an axially extending annular wall section is inserted, characterized in that the axial annular wall section is circumferentially deformed radially inwards while holding the cover , wherein a fluid-impermeable connection is formed between the cover and the pole tube . - in which a tube jacket surface from a sheet material is provided, - in which the tube jacket surface from the sheet material is formed into a cylindrical pole tube in such a way that the longitudinal jacket edges of the tube jacket surface extending in the longitudinal direction (L) of the tube face each other, and - in which the longitudinal jacket edges of the tube jacket surface are connected to each other to form a closed pole tube , - wherein a provided cover is fastened positively and/or non-positively as a bearing shield to a front tube end of the pole tube , wherein at the tube end on the inner wall side a circumferential stepped contour with a radially extending bearing surface for supporting the cover and with an axially extending annular wall section is inserted, characterized in that the axial annular wall section is circumferentially deformed radially inwards while holding the cover , wherein a fluid-impermeable connection is formed between the cover and the pole tube .
A switchable linear actuator device to control the operating of first and second non-friction coupling assemblies, the device comprising: a stator structure including at least one electromagnetic source to create an electronically-switched magnetic field; and a translator structure including a magnetically-latching, permanent magnet source magnetically coupled to the stator structure across a radial air gap and supported for translational movement relative to the stator structure along an axis between a plurality of predefined, discrete, axial positions including a first extended position which corresponds to an operating mode of the first coupling assembly and a second extended position which corresponds to an operating mode of the second coupling assembly, the translator structure being configured to translate along the axis between the different positions upon experiencing a net translational force comprising a first translational force caused by energization of the at least one electromagnetic source and a magnetic latching force based upon linear position of the permanent magnet source along the axis, the device being characterised in that the the translator structure is further including first and second bi-directionally moveable, spring-biased connecting rods , the first connecting rod being coupled to a first locking element of the first coupling assembly, and the second connecting rod being coupled to a second locking element of the second coupling assembly. a stator structure including at least one electromagnetic source to create an electronically-switched magnetic field; and a translator structure including a magnetically-latching, permanent magnet source magnetically coupled to the stator structure across a radial air gap and supported for translational movement relative to the stator structure along an axis between a plurality of predefined, discrete, axial positions including a first extended position which corresponds to an operating mode of the first coupling assembly and a second extended position which corresponds to an operating mode of the second coupling assembly, the translator structure being configured to translate along the axis between the different positions upon experiencing a net translational force comprising a first translational force caused by energization of the at least one electromagnetic source and a magnetic latching force based upon linear position of the permanent magnet source along the axis, the device being characterised in that the the translator structure is further including first and second bi-directionally moveable, spring-biased connecting rods , the first connecting rod being coupled to a first locking element of the first coupling assembly, and the second connecting rod being coupled to a second locking element of the second coupling assembly.
A method for encoding input audio signals , the method comprising: deriving , from one or more input signals , a baseband signal and a residual signal , the baseband signal comprising spectral components in a set of first frequency subbands, the residual signal comprising spectral components in a set of second frequency subbands; calculating, for each frequency subband in the set of second frequency subbands of the residual signal , a square root value of a sum of a plurality of spectral power values for a plurality of spectral components in that frequency subband in the set of second frequency subbands of the residual signal ; generating , for each frequency subband in the set of second frequency subbands of the residual signal , a scale factor based at least in part on a respective square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal ; encoding the baseband signal , along with control information , into an encoded signal , the control information including a set of scale factors, each scale factor in the set of scale factors being respectively generated for a frequency subband in the set of second frequency subbands of the residual signal based at least in part on a square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal . deriving , from one or more input signals , a baseband signal and a residual signal , the baseband signal comprising spectral components in a set of first frequency subbands, the residual signal comprising spectral components in a set of second frequency subbands; calculating, for each frequency subband in the set of second frequency subbands of the residual signal , a square root value of a sum of a plurality of spectral power values for a plurality of spectral components in that frequency subband in the set of second frequency subbands of the residual signal ; generating , for each frequency subband in the set of second frequency subbands of the residual signal , a scale factor based at least in part on a respective square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal ; encoding the baseband signal , along with control information , into an encoded signal , the control information including a set of scale factors, each scale factor in the set of scale factors being respectively generated for a frequency subband in the set of second frequency subbands of the residual signal based at least in part on a square root value of a sum of a plurality of spectral power values as calculated for that frequency subband in the set of second frequency subbands of the residual signal .
An apparatus for monitoring a tyre, involving measuring the width of a pulse in a target signal generated, in use, by a monitor installed on the tyre, the apparatus comprising: i. a frequency analyzer configured to produce a frequency representation of said pulse; characterized in further comprising ii. a signal processor configured to determine a minimum value of said frequency representation of said pulse; and iii. a pulse width estimator configured to invert said minimum value to produce a measurement for said pulse width, wherein the apparatus is configured to use said pulse width measurement as an indication of the size of a footprint made by said tyre on a road surface. i. a frequency analyzer configured to produce a frequency representation of said pulse; characterized in further comprising ii. a signal processor configured to determine a minimum value of said frequency representation of said pulse; and iii. a pulse width estimator configured to invert said minimum value to produce a measurement for said pulse width, wherein the apparatus is configured to use said pulse width measurement as an indication of the size of a footprint made by said tyre on a road surface.
Add-on module suitable to receive and hold a disposable printer cartridge that is provided with inkjet nozzles, which disposable printer cartridge is equipped for placement in a printer, wherein the add-on module is a disposable and independent item without forming a constructional part of the printer, and that the add-on module comprises capping means and wiping means that are arranged for capping and wiping respectively of said inkjet nozzles of the printer cartridge , wherein the capping means and the wiping means are provided on movable doors that are mounted on the frame characterized in that - the capping means comprise a nozzle seal embodied as a silicone cap, mounted on the door supporting the capping means , and - the wiping means comprise a waste ink collector embodied as a sponge, mounted on the door supporting the wiping means . - the capping means comprise a nozzle seal embodied as a silicone cap, mounted on the door supporting the capping means , and - the wiping means comprise a waste ink collector embodied as a sponge, mounted on the door supporting the wiping means .
A scope for insertion into the anus, wherein said scope comprises: (a) a tubular casing , a proximal end , a distal end , an internal volume (V1), a longitudinal axis of extension (X) extending from the distal end to the proximal end , a vertical axis (Y) extending perpendicularly to the axis of extension (X) and one or more apertures along the length L of the longitudinal axis of extension (X); (b) a handle having a proximal end and a distal end ; and (c) three image capture devices each located within the internal volume (V1) of the tubular casing , wherein the three image capture devices are a rearward camera looking along an axis (b) extending between the longitudinal axis of extension (X) and the vertical axis (Y) and through a first aperture of the one or more apertures in the tubular casing , a sideward camera looking along the vertical axis (Y) and through the first aperture in the tubular casing and a forward camera looking along the longitudinal axis of extension (X) from the proximal end to the distal end of the tubular casing and through the first aperture in the tubular casing . (a) a tubular casing , a proximal end , a distal end , an internal volume (V1), a longitudinal axis of extension (X) extending from the distal end to the proximal end , a vertical axis (Y) extending perpendicularly to the axis of extension (X) and one or more apertures along the length L of the longitudinal axis of extension (X); (b) a handle having a proximal end and a distal end ; and (c) three image capture devices each located within the internal volume (V1) of the tubular casing ,
A talc particulate having a d 50 of from 0.5 to 5.0 μm and a lamellarity index of from 2.8 to 45.0, and comprising less than 500 ppm of particles having a particle size of equal to or greater than 45 μm.
A method of welding dissimilar metals, comprising: preparing a dissimilar metal bus bar comprising a plate-shaped first member made of a first metal and a plate-shaped second member made of a second metal disposed under the first member; folding one side of the dissimilar metal bus bar so that a portion of the second member is located on a portion of the first member; welding a lead made of the first metal on the first member; and welding a lead made of the second metal to the second member located on the portion of the first member, wherein the welding is performed using laser welding, wherein the laser welding is performed at a welding rate of 50 to 200 mm/s using a continuous wave (CW) laser having a laser energy density of 150 to 650 kJ/cm 2 and an optical system. preparing a dissimilar metal bus bar comprising a plate-shaped first member made of a first metal and a plate-shaped second member made of a second metal disposed under the first member; folding one side of the dissimilar metal bus bar so that a portion of the second member is located on a portion of the first member; welding a lead made of the first metal on the first member; and welding a lead made of the second metal to the second member located on the portion of the first member, wherein the welding is performed using laser welding, wherein the laser welding is performed at a welding rate of 50 to 200 mm/s using a continuous wave (CW) laser having a laser energy density of 150 to 650 kJ/cm 2 and an optical system.
A method to collect media exposure data, the method comprising: collecting a cookie at a processing device based on media exposure data obtained by the processing device ; registering a portable device closest to the processing device ; and in response to instructions embedded in the media exposure data, sending a message to a collection server , the message including information about the processing device , the information including the cookie, wherein the registered portable device is one of a plurality of portable devices , and the method further including identifying a closest one of the plurality of portable devices by: collecting signal characteristics corresponding to the wireless communication between respective ones of the plurality of portable devices and the processing device ; and selecting the closest one of the plurality of portable devices based on one of the signal characteristics being comparatively best relative to others of the signal characteristic, wherein the cookie causes the collection server to credit a user of the portable device closest to the processing device with being exposed to the media, and wherein the one of the signal characteristics is one of a link quality, a signal strength, or a transmit power level. collecting a cookie at a processing device based on media exposure data obtained by the processing device ; registering a portable device closest to the processing device ; and in response to instructions embedded in the media exposure data, sending a message to a collection server , the message including information about the processing device , the information including the cookie, wherein the registered portable device is one of a plurality of portable devices , and the method further including identifying a closest one of the plurality of portable devices by: collecting signal characteristics corresponding to the wireless communication between respective ones of the plurality of portable devices and the processing device ; and selecting the closest one of the plurality of portable devices based on one of the signal characteristics being comparatively best relative to others of the signal characteristic, wherein the cookie causes the collection server to credit a user of the portable device closest to the processing device with being exposed to the media, and wherein the one of the signal characteristics is one of a link quality, a signal strength, or a transmit power level. collecting signal characteristics corresponding to the wireless communication between respective ones of the plurality of portable devices and the processing device ; and selecting the closest one of the plurality of portable devices based on one of the signal characteristics being comparatively best relative to others of the signal characteristic, wherein the cookie causes the collection server to credit a user of the portable device closest to the processing device with being exposed to the media, and wherein the one of the signal characteristics is one of a link quality, a signal strength, or a transmit power level.
A polarizing plate comprising: a polarizer; a protective layer directly formed on one surface of the polarizer; and an adhesive layer and a protective film consecutively provided on a surface of the polarizer on which the protective layer is not formed, wherein the adhesive layer is a resin layer comprising an active energy ray-curable composition comprising a first epoxy compound (A) comprising one or more alicyclic epoxy rings, and, with respect to 100 parts by weight of the first epoxy compound (A), a second epoxy compound (B) comprising one or more glycidyl ether groups in 110 parts by weight to 500 parts by weight and an oxetane compound (C) in 5 parts by weight to 85 parts by weight, or a cured material thereof; wherein the polarizing plate satisfies the following General Formula 1. P ≥ 3.5 N / cm in General Formula 1, P means peel strength measured while peeling the protective film from the adhesive layer at 25°C at a peeling angle of 90° and a peeling rate of 300 mm/min; and wherein the adhesive layer has a glass transition temperature of 90°C or higher measured according to the method detailed in the description. a polarizer; a protective layer directly formed on one surface of the polarizer; and an adhesive layer and a protective film consecutively provided on a surface of the polarizer on which the protective layer is not formed, wherein the adhesive layer is a resin layer comprising an active energy ray-curable composition comprising a first epoxy compound (A) comprising one or more alicyclic epoxy rings, and, with respect to 100 parts by weight of the first epoxy compound (A), a second epoxy compound (B) comprising one or more glycidyl ether groups in 110 parts by weight to 500 parts by weight and an oxetane compound (C) in 5 parts by weight to 85 parts by weight, or a cured material thereof; wherein the polarizing plate satisfies the following General Formula 1. P ≥ 3.5 N / cm in General Formula 1, P means peel strength measured while peeling the protective film from the adhesive layer at 25°C at a peeling angle of 90° and a peeling rate of 300 mm/min; and wherein the adhesive layer has a glass transition temperature of 90°C or higher measured according to the method detailed in the description.