mhurhangee/patent-ind-claim-en huggingface dataset:
A transceiver circuit for a flow meter comprising a common signal path for signals to be transmitted and received, the transceiver circuit comprising a generator circuit , a signal processing circuit and a transimpedance amplifier comprising an inverting amplifier , wherein - the generator circuit is operatively connected to an inverting input terminal of the inverting amplifier of the transimpedance amplifier , - the signal processing circuit is operatively connected to an output terminal of the transimpedance amplifier , and - the transimpedance amplifier further comprises a combined input/output terminal being operatively connectable to one or more associated transducers , and wherein the transimpedance amplifier provides a separate transmitting impedance ZTx between the input terminal and the combined input/output terminal , and a separate receiving impedance ZRx between the combined input/output terminal and the output terminal . - the generator circuit is operatively connected to an inverting input terminal of the inverting amplifier of the transimpedance amplifier , - the signal processing circuit is operatively connected to an output terminal of the transimpedance amplifier , and - the transimpedance amplifier further comprises a combined input/output terminal being operatively connectable to one or more associated transducers , and wherein the transimpedance amplifier provides a separate transmitting impedance ZTx between the input terminal and the combined input/output terminal , and a separate receiving impedance ZRx between the combined input/output terminal and the output terminal .
Axial piston motor with a cylinder housing , in which a plurality of cylinders are formed, and with pistons movably guided in the cylinders , wherein the pistons are connected to a swash plate and wherein a flow of a fluid, which entered the axial piston motor via an inlet , into and out of the cylinders is controlled by means of intake and exhaust valves, wherein the intake and/or the exhaust valves comprise fluid exchange openings in a cylinder head plate which fluid exchange openings can be temporarily exposed and covered by means of a rotary slide , wherein the rotary slider has an inlet opening that can be brought into a fluid-conducting connection with the fluid exchange openings , which inlet opening is in a fluid-conducting connection with the inlet via a tubular sealing element , wherein the sealing element is pressed against an abutment by means of the inlet pressure of the fluid in order to seal off a gap formed between the sealing element and the abutment, characterized in that the sealing element and the abutment additionally form a labyrinth seal.
A cutting drum for a borer miner having a longitudinal axis to extend transverse or perpendicular to rotational axes of forwardmost primary cutting rotors of the borer miner , the drum comprising: a main body centred on the longitudinal axis and having an external facing drum face ; a plurality of cutting pick holders projecting outwardly from the drum face to mount respective cutting picks at the main body; characterised by : a plurality of material transport blades each having a respective outward facing blade face being raised radially from the drum face , each of the blades extending generally lengthwise along the drum between the pick holders and positioned side-by-side in a circumferential direction around the drum to cover the drum face , with each face being elongate in the axial direction of drum . a main body centred on the longitudinal axis and having an external facing drum face ; a plurality of cutting pick holders projecting outwardly from the drum face to mount respective cutting picks at the main body; characterised by : a plurality of material transport blades each having a respective outward facing blade face being raised radially from the drum face , each of the blades extending generally lengthwise along the drum between the pick holders and positioned side-by-side in a circumferential direction around the drum to cover the drum face , with each face being elongate in the axial direction of drum .
Rubber composition based on at least a modified dienic elastomer and a reinforcing filler, which modified dienic elastomer is the reaction product of a starting dienic elastomer and an aromatic nitrile oxide, compound with a benzene core substituted by a dipole nitrile oxide, the grafted aromatic nitrile oxide content being within the range of 18% to less than 50% by mass of the modified dienic elastomer, the benzene nucleus of the aromatic nitrile oxide being substituted by one or more substituents, one of which is ortho of the dipole nitrile oxide.
An image forming apparatus comprising: an image forming portion configured to form a toner image on a recording material according to image information about a desired image; a fixing portion that has a heater unit including a heater (33; 35) and that is configured to fix, onto the recording material , the toner image formed on the recording material , by heat from the heater (33; 35), the heater (33; 35) being capable of changing a heat generating region in a direction perpendicular to a conveying direction of the recording material ; a control portion configured to control the heater (33; 35); and an image adding portion configured to superimpose a predetermined additional image to the desired image, wherein the control portion is configured to set the heat generating region according to a width of the desired image in the direction perpendicular to the conveying direction or a width of the recording material in the direction perpendicular to the conveying direction, and the image adding portion sets the width of the predetermined additional image added by the image adding portion in the direction perpendicular to the conveying direction to be equal to or less than the set width of the heat generating region in the direction perpendicular to the conveying direction. an image forming portion configured to form a toner image on a recording material according to image information about a desired image; a fixing portion that has a heater unit including a heater (33; 35) and that is configured to fix, onto the recording material , the toner image formed on the recording material , by heat from the heater (33; 35), the heater (33; 35) being capable of changing a heat generating region in a direction perpendicular to a conveying direction of the recording material ; a control portion configured to control the heater (33; 35); and an image adding portion configured to superimpose a predetermined additional image to the desired image, wherein the control portion is configured to set the heat generating region according to a width of the desired image in the direction perpendicular to the conveying direction or a width of the recording material in the direction perpendicular to the conveying direction, and the image adding portion sets the width of the predetermined additional image added by the image adding portion in the direction perpendicular to the conveying direction to be equal to or less than the set width of the heat generating region in the direction perpendicular to the conveying direction.
An immunogenic composition for use in a method of raising a protective antibody response against influenza in a human, the composition comprising: (i) a non-virion influenza virus antigen comprising haemagglutinin, which is a split virus or comprises purified surface antigens, prepared from a virus grown in mammalian or avian cell culture; and (ii) an adjuvant which comprises a submicron oil-in-water emulsion which includes (a) squalene, polysorbate 80 and sorbitan trioleate, or (b) squalene, a tocopherol and polysorbate 80.
A transfer article comprising: a release layer , wherein the release layer comprises a metal layer or a doped semiconductor layer; and a first acrylate layer overlaying the release layer , the first acrylate layer comprising tricyclodecane dimethanol diacrylate; wherein the release value between the release layer and the first acrylate layer is 0.79 to 3.94 g/cm (2 to 10 g/inch), as measured according to the T-Peel Test Method of the ASTM D1876-08 standard, as detailed in the Examples section of the description under "T-Peel Test Method". a release layer , wherein the release layer comprises a metal layer or a doped semiconductor layer; and a first acrylate layer overlaying the release layer , the first acrylate layer comprising tricyclodecane dimethanol diacrylate; wherein the release value between the release layer and the first acrylate layer is 0.79 to 3.94 g/cm (2 to 10 g/inch), as measured according to the T-Peel Test Method of the ASTM D1876-08 standard, as detailed in the Examples section of the description under "T-Peel Test Method".
A semiconductor module , comprising: at least two electrically insulating substrates , each having a first main surface and a second main surface opposite to the first main surface , for each of the substrates , at least one semiconductor device mounted on the first main surface of the corresponding substrate , an external terminal connected to the first main surface of at least one of the substrates , wherein either: the external terminal is formed as a lead frame connected to the at least two substrates ; or the external terminal is formed as two separate lead frames , each connected to one of the at least two substrates , wherein the substrates are arranged spaced apart and opposite to each other so that their first main surfaces are facing each other, wherein the at least two substrates (401a, 401b; 501a, 501b) are electrically interconnected by means of an internal lead frame or by means of internal pins , and wherein the semiconductor module further comprises a printed circuit board including controllers and/or drivers for the semiconductor devices , wherein the printed circuit board is arranged in the space between the at least two substrates . at least two electrically insulating substrates , each having a first main surface and a second main surface opposite to the first main surface , for each of the substrates , at least one semiconductor device mounted on the first main surface of the corresponding substrate , an external terminal connected to the first main surface of at least one of the substrates , wherein either: the external terminal is formed as a lead frame connected to the at least two substrates ; or the external terminal is formed as two separate lead frames , each connected to one of the at least two substrates , wherein the substrates are arranged spaced apart and opposite to each other so that their first main surfaces are facing each other, wherein the at least two substrates (401a, 401b; 501a, 501b) are electrically interconnected by means of an internal lead frame or by means of internal pins , and wherein the semiconductor module further comprises a printed circuit board including controllers and/or drivers for the semiconductor devices , wherein the printed circuit board is arranged in the space between the at least two substrates .
Semiconductor laser diode with a semiconductor layer sequence comprising an active zone , wherein - the semiconductor layer sequence comprises a p-doped semiconductor layer and on which a contact layer is arranged, - a refractive index of the contact layer is smaller than a refractive index of the p-doped semiconductor layer, - on a side of the semiconductor laser diode facing the contact layer a carrier is arranged, - the semiconductor layer sequence has a cylindrical shape, - a cylinder axis (z) of the semiconductor layer sequence is perpendicular to a layer plane of the semiconductor layer sequence , and - the semiconductor laser diode emits radiation generated during operation perpendicular to the cylinder axis (z) of the semiconductor layer sequence . - the semiconductor layer sequence comprises a p-doped semiconductor layer and on which a contact layer is arranged, - a refractive index of the contact layer is smaller than a refractive index of the p-doped semiconductor layer, - on a side of the semiconductor laser diode facing the contact layer a carrier is arranged, - the semiconductor layer sequence has a cylindrical shape, - a cylinder axis (z) of the semiconductor layer sequence is perpendicular to a layer plane of the semiconductor layer sequence , and - the semiconductor laser diode emits radiation generated during operation perpendicular to the cylinder axis (z) of the semiconductor layer sequence .
A method for wireless communication performed by a user equipment, UE, , comprising: receiving a non-coherent joint transmission including at least a first transmission (210-a) from a first transmit point (205-a) associated with a first demodulated reference signal, DMRS, and a second transmission (210-b) from a second transmit point (205-b) associated with a second DMRS orthogonal to the first, DMRS, the first transmission (210-a) and the second transmission received on overlapping sets of frequency resources; and processing the first transmission (210-a) and the second transmission (210-b) according to a set of receive parameters defined for separate component carriers, CCs. receiving a non-coherent joint transmission including at least a first transmission (210-a) from a first transmit point (205-a) associated with a first demodulated reference signal, DMRS, and a second transmission (210-b) from a second transmit point (205-b) associated with a second DMRS orthogonal to the first, DMRS, the first transmission (210-a) and the second transmission received on overlapping sets of frequency resources; and processing the first transmission (210-a) and the second transmission (210-b) according to a set of receive parameters defined for separate component carriers, CCs.
A printhead assembly , comprising: ink ejection devices having nozzles ; and processing electronics in communication with the ink ejection devices , the processing electronics including logic configured to receive nozzle data for controlling the ink ejection devices; receive error detection data associated with the nozzle data; detect errors associated with the nozzle data using the error detection data; generate fault data for the detected errors; and transmit the fault data to a printing system in communication with the printhead assembly during printing of a print job; wherein the generated fault data includes one of a number of errors, a type of error, an error sequence, and an error frequency for the errors associated with the nozzle data; based on which the printing system differentiates between critical and non-critical data transmission errors and provides an appropriate response to the critical or non-critical data transmission errors. ink ejection devices having nozzles ; and processing electronics in communication with the ink ejection devices , the processing electronics including logic configured to receive nozzle data for controlling the ink ejection devices; receive error detection data associated with the nozzle data; detect errors associated with the nozzle data using the error detection data; generate fault data for the detected errors; and transmit the fault data to a printing system in communication with the printhead assembly during printing of a print job; wherein the generated fault data includes one of a number of errors, a type of error, an error sequence, and an error frequency for the errors associated with the nozzle data; based on which the printing system differentiates between critical and non-critical data transmission errors and provides an appropriate response to the critical or non-critical data transmission errors. receive nozzle data for controlling the ink ejection devices; receive error detection data associated with the nozzle data; detect errors associated with the nozzle data using the error detection data; generate fault data for the detected errors; and transmit the fault data to a printing system in communication with the printhead assembly during printing of a print job; wherein the generated fault data includes one of a number of errors, a type of error, an error sequence, and an error frequency for the errors associated with the nozzle data; based on which the printing system differentiates between critical and non-critical data transmission errors and provides an appropriate response to the critical or non-critical data transmission errors.
Apparatus for the reception of a cryogenic fluid comprising a pressure vessel with a generally cylindrical mantle and an end cap attached to a frontal plane of the mantle as well as a heat exchanger connected to the pressure vessel for evaporation of the cryogenic fluid, wherein the heat exchanger is located on the outer side of the end cap and eccentrically thereto, characterized in that the heat exchanger has a straight rod form and is located perpendicularly to the cylinder axis of the mantle .
A waveguide for conveying image light, the waveguide comprising: a first input port for receiving a first beam of image light carrying an image in a first wavelength band; opposed first and second outer optical surfaces for propagating the first beam therebetween; and first and second diffraction gratings disposed in the waveguide between the first and second optical surfaces and offset laterally from each other; wherein the first diffraction grating comprises a plurality of non-overlapping volume Bragg gratings (VBGs) configured to expand the first beam along a first axis and to redirect the first beam towards the second diffraction grating; and wherein the second diffraction grating comprises a plurality of non-overlapping VBGs configured to receive the first beam from the first diffraction grating and to out-couple different portions of the first wavelength band of the first beam at different locations along a second axis , thereby expanding the first beam along the second axis for observation of the image by a user. a first input port for receiving a first beam of image light carrying an image in a first wavelength band; opposed first and second outer optical surfaces for propagating the first beam therebetween; and first and second diffraction gratings disposed in the waveguide between the first and second optical surfaces and offset laterally from each other; wherein the first diffraction grating comprises a plurality of non-overlapping volume Bragg gratings (VBGs) configured to expand the first beam along a first axis and to redirect the first beam towards the second diffraction grating; and wherein the second diffraction grating comprises a plurality of non-overlapping VBGs configured to receive the first beam from the first diffraction grating and to out-couple different portions of the first wavelength band of the first beam at different locations along a second axis , thereby expanding the first beam along the second axis for observation of the image by a user.
A method for forming a plate for an article of footwear, the method comprising: forming a stitched article including: providing a substrate with a first region and a second region; and attaching a first strand portion formed from a first bundle of fibers to the substrate in the first region and in the second region via a series of stitches formed with a first thread to form a first layer on the substrate, the stitched article having a first concentration of the stitches in the first region along a first length of the first strand portion and a second concentration of the stitches different than the first concentration in the second region along a second length of the first strand portion. providing a substrate with a first region and a second region; and attaching a first strand portion formed from a first bundle of fibers to the substrate in the first region and in the second region via a series of stitches formed with a first thread to form a first layer on the substrate, the stitched article having a first concentration of the stitches in the first region along a first length of the first strand portion and a second concentration of the stitches different than the first concentration in the second region along a second length of the first strand portion.
Urinary catheter (1; 1'; 1") for the introduction in the human urethra with an inner catheter tube (6; 6'; 6") and an outer catheter tube (5; 5") which tightly surrounds the inner catheter tube (6; 6'; 6"), wherein the outer catheter tube (5; 5") comprises a hydrophilic coating at least along its insertable length, the inner catheter tube (5; 5") and the outer catheter tube (6; 6'; 6") are non-metallic, the inner catheter tube (6; 6'; 6") is made of a stiffer material than the outer catheter tube (5; 5"), the inner catheter tube (6; 6'; 6") is provided with a helical cut (9; 9'; 9"), which completely penetrates the wall of the inner catheter tube (6; 6'; 6") and adjacent parts of the inner catheter tube which are separated by the helical cut abut each other so that there is no space between them.
A cinema screen comprising structures which are spaced apart and are configured to direct light projected onto the screen toward an audience and away from side walls, ceilings, and floors of a theater, wherein the structures have respective angles of inclination relative to screen normal that vary over the screen, wherein the spacing between the structures varies over the screen such that separation distance decreases with an increase in angle of inclination, wherein the structures have geometric properties that vary across the screen, and wherein the geometry of the structures increases towards edges of the screen in a manner that causes more light reflected from the edges of the screen to be directed away from a wall of the theater and toward an audience. wherein the structures have respective angles of inclination relative to screen normal that vary over the screen, wherein the spacing between the structures varies over the screen such that separation distance decreases with an increase in angle of inclination, wherein the structures have geometric properties that vary across the screen, and wherein the geometry of the structures increases towards edges of the screen in a manner that causes more light reflected from the edges of the screen to be directed away from a wall of the theater and toward an audience.