mhurhangee/patent-ind-claim-en huggingface dataset:
A can end for a two-piece beverage container , the can end comprising: a public side opposite a product side ; a cured coating on the product side of the can end forming a substantially continuous thin layer thereon; a circumferential curl centered about a longitudinal axis ; a circumferential chuckwall extending downwardly from the curl ; a circumferential U-shaped countersink located downwardly from the chuckwall , the countersink having an annular bead defining a lowermost vertical extent of the can end ; a center panel located radially inwardly from the countersink and centered about the longitudinal axis , and a circumferential second coating forming an annular layer on the product side of the circumferential curl and the cured coating , the second coating providing a layer on one or more fractures in the cured coating , characterized in that the center panel comprises a means for providing an opening in the can end and in that the second coating extends from the curl downwardly on the chuckwall towards the countersink and terminates at a height on the can end greater than a lowermost vertical extent of the can end . a public side opposite a product side ; a cured coating on the product side of the can end forming a substantially continuous thin layer thereon; a circumferential curl centered about a longitudinal axis ; a circumferential chuckwall extending downwardly from the curl ; a circumferential U-shaped countersink located downwardly from the chuckwall , the countersink having an annular bead defining a lowermost vertical extent of the can end ; a center panel located radially inwardly from the countersink and centered about the longitudinal axis , and a circumferential second coating forming an annular layer on the product side of the circumferential curl and the cured coating , the second coating providing a layer on one or more fractures in the cured coating , characterized in that the center panel comprises a means for providing an opening in the can end and in that the second coating extends from the curl downwardly on the chuckwall towards the countersink and terminates at a height on the can end greater than a lowermost vertical extent of the can end .
A slot resource configuration method in wireless communication, wherein the method comprises: receiving (S303) user equipment-specific downlink control information from a base station, wherein the user equipment-specific downlink control information is used to indicate a use configuration status of a flexible resource in at least one slot; characterised by when the use configuration status is a use-disabled state, configuring (S304), according to the use-disabled state, user equipment to be prohibited from performing communication by using the flexible resource, wherein the communication is scheduled by the user equipment-specific downlink control information. receiving (S303) user equipment-specific downlink control information from a base station, wherein the user equipment-specific downlink control information is used to indicate a use configuration status of a flexible resource in at least one slot; characterised by when the use configuration status is a use-disabled state, configuring (S304), according to the use-disabled state, user equipment to be prohibited from performing communication by using the flexible resource, wherein the communication is scheduled by the user equipment-specific downlink control information.
A vehicle door control system for a vehicle having a vehicle body and a vehicle door , the vehicle door control system being capable of checking the door in a plurality of positions throughout a range of movement of the vehicle door that extends between a fully open position and a fully closed position, the system comprising: a check arm having an end that is mounted to one of the vehicle body and the vehicle door ; a check arm holder at least a portion of which is mounted to the other of the vehicle body and the vehicle door ; and a controller , wherein the vehicle door control system is programmed to control whether or not it applies a resistive force on the vehicle door , and characterized in that the controller is programmed to: a) determine whether an obstacle is approaching the vehicle ; b) determine data relating to the obstacle ; c) determine the position of the vehicle door ; and d) apply a resistive force on the vehicle door based on the determinations made in steps a) and b), wherein the resistive force is a variable resistive force. a check arm having an end that is mounted to one of the vehicle body and the vehicle door ; a check arm holder at least a portion of which is mounted to the other of the vehicle body and the vehicle door ; and a controller , wherein the vehicle door control system is programmed to control whether or not it applies a resistive force on the vehicle door , and characterized in that the controller is programmed to: a) determine whether an obstacle is approaching the vehicle ; b) determine data relating to the obstacle ; c) determine the position of the vehicle door ; and d) apply a resistive force on the vehicle door based on the determinations made in steps a) and b), wherein the resistive force is a variable resistive force. a) determine whether an obstacle is approaching the vehicle ; b) determine data relating to the obstacle ; c) determine the position of the vehicle door ; and d) apply a resistive force on the vehicle door based on the determinations made in steps a) and b), wherein the resistive force is a variable resistive force.
A robotic work tool comprising: a chassis and a body ; at least one input unit for receiving input data relating to an operation of the robotic work tool ; at least one collision sensor arrangement for detecting a direction of a movement of the chassis with respect to the body , wherein the movement is indicative of a collision; and at least one controller for controlling operation of the robotic work tool , wherein the robotic work tool is characterized in that the at least one controller is configured to: adapt a collision threshold, wherein the collision threshold is related to said movement of the chassis with respect to the body detected by the at least one collision sensor arrangement , wherein it is determined that a collision has been detected when a relative movement between the chassis and the body reaches or exceeds the collision threshold. a chassis and a body ; at least one input unit for receiving input data relating to an operation of the robotic work tool ; at least one collision sensor arrangement for detecting a direction of a movement of the chassis with respect to the body , wherein the movement is indicative of a collision; and at least one controller for controlling operation of the robotic work tool , wherein the robotic work tool is characterized in that the at least one controller is configured to: adapt a collision threshold, wherein the collision threshold is related to said movement of the chassis with respect to the body detected by the at least one collision sensor arrangement , wherein it is determined that a collision has been detected when a relative movement between the chassis and the body reaches or exceeds the collision threshold.
An integrally formed rigid razor blade having a body made of martensitic stainless steel and having in cross-section: a cutting edge portion extending along a cutting edge portion axis, and having a cutting edge at one end, a base portion extending along a base portion axis, a bent portion intermediate the cutting edge portion and the base portion , said blade having a concave face and an opposed convex face , wherein the average radius of curvature of the bent portion at its concave face is over 0.5 mm and lower or equal than 0.6 mm, wherein an included angle measured between the cutting edge portion axis and the base portion axis is between 95° and 140°, wherein the blade has an inner face and an opposed outer face , and a thickness, measured between said faces , between 0.07 mm and 0.12 mm, and wherein an extent of the cutting edge portion measured from the cutting edge to the bent portion is between 0.28 mm and 1.14 mm, wherein the martensitic steel comprises mainly iron and between 0.62% and 0.75% of carbon in weight. a cutting edge portion extending along a cutting edge portion axis, and having a cutting edge at one end, a base portion extending along a base portion axis, a bent portion intermediate the cutting edge portion and the base portion , said blade having a concave face and an opposed convex face , wherein the average radius of curvature of the bent portion at its concave face is over 0.5 mm and lower or equal than 0.6 mm, wherein an included angle measured between the cutting edge portion axis and the base portion axis is between 95° and 140°, wherein the blade has an inner face and an opposed outer face , and a thickness, measured between said faces , between 0.07 mm and 0.12 mm, and wherein an extent of the cutting edge portion measured from the cutting edge to the bent portion is between 0.28 mm and 1.14 mm, wherein the martensitic steel comprises mainly iron and between 0.62% and 0.75% of carbon in weight.
A hook-and-loop fastener female member, comprising an engaging layer engageable with a male member, and a physical property layer, wherein the engaging layer includes a non-woven fabric of fiber, wherein the non-woven fabric in the engaging layer has a density of from 50 kg/m 3 to 100 kg/m 3 , wherein the fiber has a diameter of from 15 μm to 60 μm, wherein the engaging layer is laminated on the physical property layer by embossing using a pattern roll, and wherein a surface of the fiber forming the non-woven fabric included in the engaging layer and a surface of the physical property layer on an engaging layer side contain the same kind of polymer, wherein the polymer comprises polyolefin.
A shaped vegetarian meat product selected from a sausage or a patty, said meat product comprising: a) 30-80 wt.% water; b) 5-35 wt.% oil, said oil having a solid fat content at 20 degrees Celsius (N 20 ) of 1.5-20%, wherein the oil contains 80-98 wt.% of a liquid vegetable oil selected from the group of sunflower oil, soybean oil, rapeseed oil, cottonseed oil, maize oil, olive oil, and combinations thereof and 2-20 wt.% of a high melting oil selected from hydrogenated vegetable oil, palm stearin, palm kernel stearin, palm mid fraction, coconut stearin, butter oil, butter stearin and combinations thereof; c) 2-25 wt.% protein selected from algal protein, bacterial protein, dairy protein, egg protein, fungal protein, plant protein, and combinations thereof; d) 0-40 wt.% of one or more particulate ingredients selected from herbs, spices, vegetables and combinations thereof; and e) 0.3-8 wt.% of salt selected from sodium chloride, potassium chloride and combinations thereof; wherein the vegetarian meat product contains at least 4 vol.% of oil droplets having an equivalent spherical diameter in the range of 100 micrometer to 1,000 micrometer as determined by means of micro computed tomography. a) 30-80 wt.% water; b) 5-35 wt.% oil, said oil having a solid fat content at 20 degrees Celsius (N 20 ) of 1.5-20%, wherein the oil contains 80-98 wt.% of a liquid vegetable oil selected from the group of sunflower oil, soybean oil, rapeseed oil, cottonseed oil, maize oil, olive oil, and combinations thereof and 2-20 wt.% of a high melting oil selected from hydrogenated vegetable oil, palm stearin, palm kernel stearin, palm mid fraction, coconut stearin, butter oil, butter stearin and combinations thereof; c) 2-25 wt.% protein selected from algal protein, bacterial protein, dairy protein, egg protein, fungal protein, plant protein, and combinations thereof; d) 0-40 wt.% of one or more particulate ingredients selected from herbs, spices, vegetables and combinations thereof; and e) 0.3-8 wt.% of salt selected from sodium chloride, potassium chloride and combinations thereof;
A semiconductor integrated circuit comprising: a wiring (11; 31; 31A; 41; 71) configured to form a transmission network through which a same signal is transmitted; and a driver configured to supply the signal to the wiring (11; 31; 31A; 41; 71), wherein the wiring (11; 31; 31A; 41; 71) has a wiring shape set according to a distance from the driver or a frequency of the signal; wherein the wiring (11; 31; 31A; 41; 71) is branched from an output terminal of the driver and configured to be connected to an input terminal of a receiver (14; 14-1, 14-2, 14-3, 14-4, 14-5, 14-6, 14-7, 14-8, 14-9); wherein the transmission network is formed by a first wiring (32; 42) to which the driver is connected and which has a large wiring width and a plurality of second wirings (33-1, 33-2, 33-3, 33-4, 33-5; 33A-1, 33A-2, 33A-3, 33A-4; 43-1, 43-2, 43-3, 43-4, 43-5) which is branched from the first wiring (32; 42) and has a smaller wiring width, characterized in that the first wiring (32; 42) has a wiring shape set so that a wiring width becomes smaller for every branch portion of the second wirings (33-1, 33-2, 33-3, 33-4, 33-5; 33A-1, 33A-2, 33A-3, 33A-4; 43-1, 43-2, 43-3, 43-4, 43-5) as a distance from a connection portion of the driver increases; and wherein the wiring shape of the first wiring (11; 31; 31A; 41; 71) is set so that the wiring width corresponds to a decrease in a current density. a wiring (11; 31; 31A; 41; 71) configured to form a transmission network through which a same signal is transmitted; and a driver configured to supply the signal to the wiring (11; 31; 31A; 41; 71), wherein the wiring (11; 31; 31A; 41; 71) has a wiring shape set according to a distance from the driver or a frequency of the signal; wherein the wiring (11; 31; 31A; 41; 71) is branched from an output terminal of the driver and configured to be connected to an input terminal of a receiver (14; 14-1, 14-2, 14-3, 14-4, 14-5, 14-6, 14-7, 14-8, 14-9); wherein the transmission network is formed by a first wiring (32; 42) to which the driver is connected and which has a large wiring width and a plurality of second wirings (33-1, 33-2, 33-3, 33-4, 33-5; 33A-1, 33A-2, 33A-3, 33A-4; 43-1, 43-2, 43-3, 43-4, 43-5) which is branched from the first wiring (32; 42) and has a smaller wiring width, characterized in that the first wiring (32; 42) has a wiring shape set so that a wiring width becomes smaller for every branch portion of the second wirings (33-1, 33-2, 33-3, 33-4, 33-5; 33A-1, 33A-2, 33A-3, 33A-4; 43-1, 43-2, 43-3, 43-4, 43-5) as a distance from a connection portion of the driver increases; and wherein the wiring shape of the first wiring (11; 31; 31A; 41; 71) is set so that the wiring width corresponds to a decrease in a current density.
Roller mill machines comprising at least two rolls supported by means of bearing components and used for grinding grains, positioned such that an angle (α) can be formed between the central axes of said rolls , and comprising at least two rolls arranged so as to provide adjustment of said angles (α), a distance adjustment embodiment which adjusts engagements and disengagement distance of both rolls to each other; an installation block integrated with said bearing , an eccentric component moved around the rotating center found on said installation block characterised in that said eccentric component is moved by means of an eccentric adjustment arm , and allowing formation of the angle (α) between the axes by raising at least one end of said bearing of said supported roll , a rotating component allowing posititioning of said eccentric adjustment arm up and down.
A PIN photodiode comprising: (a) a layer of n-type silicon; (b) a first tunneling barrier layer of silicon oxide disposed over the layer of n-type silicon; (c) a layer of single-crystal intrinsic semiconducting material disposed over the first tunneling barrier layer; (d) a second tunneling barrier layer of silicon oxide disposed over the layer of single-crystal intrinsic semiconducting material; and (e) a layer of p-type silicon disposed over the second tunneling barrier layer, wherein the layer of single-crystal intrinsic semiconducting material is a layer of single-crystal intrinsic germanium or a layer of single-crystal intrinsic germanium-silicon alloy. (a) a layer of n-type silicon; (b) a first tunneling barrier layer of silicon oxide disposed over the layer of n-type silicon; (c) a layer of single-crystal intrinsic semiconducting material disposed over the first tunneling barrier layer; (d) a second tunneling barrier layer of silicon oxide disposed over the layer of single-crystal intrinsic semiconducting material; and (e) a layer of p-type silicon disposed over the second tunneling barrier layer, wherein the layer of single-crystal intrinsic semiconducting material is a layer of single-crystal intrinsic germanium or a layer of single-crystal intrinsic germanium-silicon alloy.
An aircraft comprising: a fuselage ; a wing connected to the fuselage first and second propulsion systems connected to the wing on opposite sides of the fuselage , wherein at least a portion of each of the first and second propulsion systems are tiltable between a first position in which the aircraft is in a hover mode and a second position in which the aircraft is in a cruise mode; a pair of booms that are connected to opposite sides of the fuselage ; and an aft pair of boom-mounted propulsion systems , wherein the aft pair of boom-mounted propulsion systems are fixedly attached to the pair of booms ; wherein the wing comprises wing tips disposed outboard of the first and second propulsion systems ; and wherein each of the first and second propulsion systems is an open rotor assembly including a pylon and a rotor assembly comprising a plurality of rotor blades. a fuselage ; a wing connected to the fuselage first and second propulsion systems connected to the wing on opposite sides of the fuselage , wherein at least a portion of each of the first and second propulsion systems are tiltable between a first position in which the aircraft is in a hover mode and a second position in which the aircraft is in a cruise mode; a pair of booms that are connected to opposite sides of the fuselage ; and an aft pair of boom-mounted propulsion systems , wherein the aft pair of boom-mounted propulsion systems are fixedly attached to the pair of booms ; wherein the wing comprises wing tips disposed outboard of the first and second propulsion systems ; and wherein each of the first and second propulsion systems is an open rotor assembly including a pylon and a rotor assembly comprising a plurality of rotor blades.
Magnetic resonance tomography scanner having a control unit for controlling the image acquisition and an interface connected to the control unit for signal communication purposes, wherein the control unit is configured for synchronising an image acquisition as a function of a signal received via the interface from a second magnetic resonance tomography scanner , wherein the interface is configured for exchanging data and wherein the control unit is configured for synchronising an image acquisition with a second magnetic resonance tomography scanner by means of information exchange via the interface, wherein the signal includes information relating to a time and frequency of a transmit process, characterised in that the control unit is configured for changing a frequency range of an image acquisition process as a function of the received information, wherein the image acquisition includes different slices, wherein these are differentiated by a gradient magnetic field in the z-direction and thus in the effective Larmor frequency of a magnetic resonance signal, wherein the sequence of slices is ordered during the image acquisition so that an acquisition in the same frequency range never takes place simultaneously in both magnetic resonance tomography scanners. wherein the interface is configured for exchanging data and wherein the control unit is configured for synchronising an image acquisition with a second magnetic resonance tomography scanner by means of information exchange via the interface, wherein the signal includes information relating to a time and frequency of a transmit process, characterised in that the control unit is configured for changing a frequency range of an image acquisition process as a function of the received information, wherein the image acquisition includes different slices, wherein these are differentiated by a gradient magnetic field in the z-direction and thus in the effective Larmor frequency of a magnetic resonance signal, wherein the sequence of slices is ordered during the image acquisition so that an acquisition in the same frequency range never takes place simultaneously in both magnetic resonance tomography scanners.
A method of measuring phase noise PN, comprising: providing: (a) a phase lock loop PLL-based frequency synthesizer that includes a first error detector including a first phase frequency detector PFD having an input receiving a reference frequency signal coupled to a first charge pump CP that is coupled to a voltage controlled oscillator VCO having an output fed back to the first error detector through a feedback divider that provides a divided frequency signal to another input of the first PFD , the first PFD outputting an error signal; and (b) PN measurement circuitry (220, 220', 220", 220''') including at least a replica CP coupled to an output of a second PFD or coupled to an output of the first PFD ; receiving the error signal at an input of the replica CP or the divided frequency signal and the reference frequency signal at an input of second PFD , wherein an output of the replica CP provides a scaled phase error current; current-to-voltage converting and amplifying the scaled phase error current to provide an amplified phase error voltage; digitizing the amplified phase error voltage to provide a digital phase error signal; and frequency analyzing the digital phase error signal to generate a PN measurement at one or more frequencies. providing: (a) a phase lock loop PLL-based frequency synthesizer that includes a first error detector including a first phase frequency detector PFD having an input receiving a reference frequency signal coupled to a first charge pump CP that is coupled to a voltage controlled oscillator VCO having an output fed back to the first error detector through a feedback divider that provides a divided frequency signal to another input of the first PFD , the first PFD outputting an error signal; and (b) PN measurement circuitry (220, 220', 220", 220''') including at least a replica CP coupled to an output of a second PFD or coupled to an output of the first PFD ; receiving the error signal at an input of the replica CP or the divided frequency signal and the reference frequency signal at an input of second PFD , wherein an output of the replica CP provides a scaled phase error current; current-to-voltage converting and amplifying the scaled phase error current to provide an amplified phase error voltage; digitizing the amplified phase error voltage to provide a digital phase error signal; and frequency analyzing the digital phase error signal to generate a PN measurement at one or more frequencies.