mhurhangee/patent-ind-claim-en huggingface dataset:
A method of context-aware caller redirection from a telephony environment to a messaging environment, the method comprising: receiving telephony information from a telephony system , the telephony information including call context provided by a caller device during a telephone call between the caller device and the telephony system; selecting a messaging operator based on the call context; transmitting the call context to a messaging device associated with the selected messaging operator after the selected messaging operator has been selected, for display at a messaging operator interface at the messaging device ; and initiating a messaging connection through a messaging service between the caller device and the messaging device , wherein the messaging service conveys one or more caller messages from the caller device to the messaging device over the messaging connection, for display at the messaging operator interface , and wherein the messaging service conveys one or more operator messages from the messaging device to the caller device over the messaging connection, for display at a user interface of the caller device. receiving telephony information from a telephony system , the telephony information including call context provided by a caller device during a telephone call between the caller device and the telephony system; selecting a messaging operator based on the call context; transmitting the call context to a messaging device associated with the selected messaging operator after the selected messaging operator has been selected, for display at a messaging operator interface at the messaging device ; and initiating a messaging connection through a messaging service between the caller device and the messaging device , wherein the messaging service conveys one or more caller messages from the caller device to the messaging device over the messaging connection, for display at the messaging operator interface , and wherein the messaging service conveys one or more operator messages from the messaging device to the caller device over the messaging connection, for display at a user interface of the caller device.
An internal combustion engine, comprising: a cylinder portion that includes a cylinder and a cylinder head ; and a water pump unit disposed on a side surface of the cylinder head , wherein the cylinder portion includes a coolant inlet portion with which a discharge port of the water pump unit is directly connected, and in a side view facing the side surface of the cylinder head , the coolant inlet portion protrudes to an outside from a wall surface of the cylinder portion , wherein the cylinder portion includes a coolant outlet portion that serves as an outlet of coolant from the cylinder portion , and in the side view facing the side surface of the cylinder head , the coolant outlet portion protrudes to an outside from a wall surface of the cylinder portion , characterized in that the cylinder portion includes a cam chain that transmits rotation of a crankshaft to a valve actuating unit of the cylinder head and a cam chain chamber through which the cam chain passes, and in the side view facing the side surface , the coolant inlet portion and the coolant outlet portion do not overlap the cam chain chamber . a cylinder portion that includes a cylinder and a cylinder head ; and a water pump unit disposed on a side surface of the cylinder head , wherein the cylinder portion includes a coolant inlet portion with which a discharge port of the water pump unit is directly connected, and in a side view facing the side surface of the cylinder head , the coolant inlet portion protrudes to an outside from a wall surface of the cylinder portion , wherein the cylinder portion includes a coolant outlet portion that serves as an outlet of coolant from the cylinder portion , and in the side view facing the side surface of the cylinder head , the coolant outlet portion protrudes to an outside from a wall surface of the cylinder portion , characterized in that the cylinder portion includes a cam chain that transmits rotation of a crankshaft to a valve actuating unit of the cylinder head and a cam chain chamber through which the cam chain passes, and in the side view facing the side surface , the coolant inlet portion and the coolant outlet portion do not overlap the cam chain chamber .
A 360-degree magnetic rotary position sensor system comprising in combination an AMR sensor having a maximum of 180 degrees absolute angle range, a first and a second lateral Hall sensor , both providing a non-ambiguous angle direction over 360 degrees absolute angle range, a signal processing circuit and a magnet providing a magnetic field with three components (X-Y-Z) and with a rotation axis whereas the rotation axis is positioned above a center of the AMR sensor and intersects the AMR sensor perpendicular; the AMR sensor and the Hall sensors lay in one plane , whereas the AMR sensor has a zero angle measurement position indicating a signal value of zero and detecting the horizontal components X and Y of the magnetic field and the first Hall sensor is placed relative to the zero angle measurement position in a range from 0° < phase shift < 90° counterclockwise measuring a signal which is phase shifted with increasing angle relative to the zero angle measurement position of the AMR sensor and the second Hall sensor is placed relative to the zero angle measurement position in a range from 0° < phase shift < 90° clockwise measuring a signal which is phase shifted with decreasing angle relative to the zero angle measurement position of the AMR sensor, resulting in an angle between 0° and < 180° defined between the first Hall sensor , an intersection point of the rotation axis with the AMR sensor and the second Hall sensor , whereas the signal processing is designed performable in analog and/or digital and whereas an error detection is provided by using the sensor system signals of the AMR sensor and the two Hall sensors.
A multi-barrel drill guide, comprising: an elongated body extending along a longitudinal axis having a proximal end and a distal end with a handle extending from the elongated body between the proximal end and the distal end ; an elongated distal guide tube attached to and extending distally from the distal end of the elongated body; a sliding inserter movably connected to the elongated body such that the sliding inserter is configured to move between the proximal end and the distal end of the elongated body ; a first channel extending from the proximal end to the distal end of the elongated body ; a second channel extending from the distal end to a position between the distal end and the proximal end along the elongated body , the second channel extending at an angle relative to the first channel ; and a convergence area at the distal end where the first channel and the second channel intersect. an elongated body extending along a longitudinal axis having a proximal end and a distal end with a handle extending from the elongated body between the proximal end and the distal end ; an elongated distal guide tube attached to and extending distally from the distal end of the elongated body; a sliding inserter movably connected to the elongated body such that the sliding inserter is configured to move between the proximal end and the distal end of the elongated body ; a first channel extending from the proximal end to the distal end of the elongated body ; a second channel extending from the distal end to a position between the distal end and the proximal end along the elongated body , the second channel extending at an angle relative to the first channel ; and a convergence area at the distal end where the first channel and the second channel intersect.
A cutting apparatus , comprising: a cutter disposed in a conveying path for conveying a plate-shaped object and configured to cut the object ; a downstream conveyor disposed downstream of the cutter in the conveying path and configured to convey the object ; wherein the downstream conveyor is implemented as a roller conveyor including conveyor rollers (131a - 131d) and wherein the downstream conveyor includes at least a conveyor roller disposed immediately after the cutter and a foreign-matter adhesion preventer disposed between the cutter and the downstream conveyor and configured to prevent foreign matter scattered by the cutter from adhering to the downstream conveyor characterized in that the cutting apparatus further comprises a conveyor-roller contrarotation controller configured to control the conveyor roller of the downstream conveyor disposed immediately after the cutter to rotate in a direction that is opposite a conveying direction in which the object is conveyed. a cutter disposed in a conveying path for conveying a plate-shaped object and configured to cut the object ; a downstream conveyor disposed downstream of the cutter in the conveying path and configured to convey the object ; wherein the downstream conveyor is implemented as a roller conveyor including conveyor rollers (131a - 131d) and wherein the downstream conveyor includes at least a conveyor roller disposed immediately after the cutter and a foreign-matter adhesion preventer disposed between the cutter and the downstream conveyor and configured to prevent foreign matter scattered by the cutter from adhering to the downstream conveyor characterized in that the cutting apparatus further comprises a conveyor-roller contrarotation controller configured to control the conveyor roller of the downstream conveyor disposed immediately after the cutter to rotate in a direction that is opposite a conveying direction in which the object is conveyed.
Machine for injecting thermoplastic material into a mould (C), the machine comprising a frame , a bracket mounted on the frame, a melt chamber supported by bracket , piston designed to plunge into melt chamber along an injection axis (I) through an upper opening and push molten material (M) contained in the chamber into mould (C), the machine being characterised by the fact it includes a head along which piston slides, head also has a hopper that contains the non-molten thermoplastic material, head being mobile perpendicularly to injection axis (I) between an injection position, in which piston is aligned with melt chamber and hopper is blocked off by bracket , and a feed position in which hopper is aligned with melt chamber to feed it with thermoplastic material and the movement of piston is limited by bracket .
A composition comprising the product of melt blending components comprising: 35 to 95.5 weight percent of a poly(phenylene ether); 4 to 50 weight percent of a first hydrogenated block copolymer (HBC1) comprising a polystyrene-poly(ethylene-butylene)-polystyrene triblock copolymer having a polystyrene content of 50 to 75 weight percent; and 0.5 to 18 weight percent of a second hydrogenated block copolymer (HBC2) comprising a polystyrene-poly(ethylene-butylene-styrene)-polystyrene triblock copolymer having a polystyrene content of 50 to 65 weight percent and a weight average molecular weight of 200,000 to 400,000 atomic mass units determined by gel permeation chromatography using polystyrene standards, wherein the first hydrogenated block copolymer and the second hydrogenated block copolymer are present in a weight ratio of HBC1:HBC2 of 1:1 to 15:1; wherein the melt blended components comprise 0 to 0.5 weight percent polyolefins. 35 to 95.5 weight percent of a poly(phenylene ether); 4 to 50 weight percent of a first hydrogenated block copolymer (HBC1) comprising a polystyrene-poly(ethylene-butylene)-polystyrene triblock copolymer having a polystyrene content of 50 to 75 weight percent; and 0.5 to 18 weight percent of a second hydrogenated block copolymer (HBC2) comprising a polystyrene-poly(ethylene-butylene-styrene)-polystyrene triblock copolymer having a polystyrene content of 50 to 65 weight percent and a weight average molecular weight of 200,000 to 400,000 atomic mass units determined by gel permeation chromatography using polystyrene standards, wherein the first hydrogenated block copolymer and the second hydrogenated block copolymer are present in a weight ratio of HBC1:HBC2 of 1:1 to 15:1; wherein the melt blended components comprise 0 to 0.5 weight percent polyolefins.
A method for solution polymerization of a polymer; said method comprising polymerizing in a solvent a monomer mixture comprising: (a) 5 to 75 wt% of a C 4 -C 5 ethylenically unsaturated dicarboxylic acid, wherein the C 4 -C 5 ethylenically unsaturated dicarboxylic acid is itaconic acid; (b) 10 to 60 wt% of vinyl acetate; and (c) 10 to 50 wt% (meth)acrylic acid; wherein the solvent comprises 60 to 88 wt% isopropanol and 12 to 40 wt% water; wherein the polymer contains no more than 5 wt% total of polymerized units of carboxylic acid or sulfonic acid monomers other than the monomers of (a) and (c).
An output conversion circuit, comprising: a comparator , comprising: a first input end, configured to receive a first output signal; a second input end; and an output end, configured to generate a comparison output signal; a counter , connected to the output end of the comparator , and configured to count an accumulative result of the comparison output signal to generate a second output signal; and a reference signal generator , connected to the second input end, and configured to generate a reference signal, wherein the reference signal generator comprises a control circuit configured to generate a digital fixed voltage, a random digit generator configured to generate a digital random digit and an adder configured to add the digital fixed voltage to the digital random digit so that the reference signal is related to a sum of the digital fixed voltage and the digital random digit, wherein the reference signal is a signal that varies randomly with time, and the random digit is in uniform distribution; wherein the comparator generates the comparison output signal according to the first output signal and the reference signal; wherein the reference signal generator further comprises a digital-to-analog converter , configured to convert the sum of the reference voltage and the digital random digit into an analog reference signal. a comparator , comprising: a first input end, configured to receive a first output signal; a second input end; and an output end, configured to generate a comparison output signal; a first input end, configured to receive a first output signal; a second input end; and an output end, configured to generate a comparison output signal; a counter , connected to the output end of the comparator , and configured to count an accumulative result of the comparison output signal to generate a second output signal; and a reference signal generator , connected to the second input end, and configured to generate a reference signal, wherein the reference signal generator comprises a control circuit configured to generate a digital fixed voltage, a random digit generator configured to generate a digital random digit and an adder configured to add the digital fixed voltage to the digital random digit so that the reference signal is related to a sum of the digital fixed voltage and the digital random digit, wherein the reference signal is a signal that varies randomly with time, and the random digit is in uniform distribution; wherein the comparator generates the comparison output signal according to the first output signal and the reference signal; wherein the reference signal generator further comprises a digital-to-analog converter , configured to convert the sum of the reference voltage and the digital random digit into an analog reference signal.
Method for adapting a human-machine interface of an aircraft , in which: - during a first step , before the start of a mission, characteristics of said mission and characteristics of a pilot and the pilot's initial physiological state are determined; - during a second step , the progress of said mission and a current state of said aircraft and a current behaviour of said pilot during said mission are determined; - during a third step , a current functional level of said pilot NFCP is determined by using said characteristics of said mission, said characteristics and said initial physiological state of said pilot, said progress of said mission, said current state of said aircraft and said current behaviour of said pilot; - during a fourth step , a comparison value VC is determined on the basis of said current functional level NFCP; the method being characterised in that : - during a fifth step , said comparison value VC is compared with at least one reference functional level ValRef ; and - during a sixth step , said human-machine interface is controlled on the basis of said comparison value VC and of each reference functional level ValRef ; and, in order to determine the comparison value VC, said current functional level NFCP is recorded in a history of said functional levels of said pilot NFP, then a trend T of an evolution of said functional level NFP is calculated from said history, then a predictive functional level of said pilot NFPP is determined, said comparison value VC being equal to said predictive functional level NFPP. - during a first step , before the start of a mission, characteristics of said mission and characteristics of a pilot and the pilot's initial physiological state are determined; - during a second step , the progress of said mission and a current state of said aircraft and a current behaviour of said pilot during said mission are determined; - during a third step , a current functional level of said pilot NFCP is determined by using said characteristics of said mission, said characteristics and said initial physiological state of said pilot, said progress of said mission, said current state of said aircraft and said current behaviour of said pilot; - during a fourth step , a comparison value VC is determined on the basis of said current functional level NFCP; - during a fifth step , said comparison value VC is compared with at least one reference functional level ValRef ; and - during a sixth step , said human-machine interface is controlled on the basis of said comparison value VC and of each reference functional level ValRef ;
A method for prediction of gamma characteristics for a display with average power level dependency comprising: measuring gamma characteristics of said display for a plurality of average power levels (APLs) of said display; generating gamma curves for each of the plurality of APLs; normalizing said gamma curves for each of said plurality of average power levels to obtain a plurality of respective gamma controlled functions, wherein said gamma controlled functions are determined from respective said gamma curves; for each of the plurality of average power levels (APLs), determining respective basis vectors for said respective gamma curves for each power levels for said display; using said gamma controlled functions, determining coefficients for each of the plurality of APLs; detecting any input change to a different average power level and using said determined coefficients corelating to said new input change, and interpolating between coefficients to determine new gamma curve coefficients for a new APL; and comparing said new gamma controlled function and adjusting luminance for the new APL as needed to improve content viewing on said display. measuring gamma characteristics of said display for a plurality of average power levels (APLs) of said display; generating gamma curves for each of the plurality of APLs; normalizing said gamma curves for each of said plurality of average power levels to obtain a plurality of respective gamma controlled functions, wherein said gamma controlled functions are determined from respective said gamma curves; for each of the plurality of average power levels (APLs), determining respective basis vectors for said respective gamma curves for each power levels for said display;
A method for configuring a remote device, the method comprising: coupling a network device to a network; activating the network device, so that the network device is in a request configuration state; sending from the network device to the network a configuration data set request message including a device identifier associated with the network device; receiving by the network device from the network a configuration data set associated with the device identifier, wherein the configuration data set comprises configuration information that identifies attributes of users or client devices that are permitted to access the network from or through the network device; loading the configuration data set into a non-volatile configuration storage within the network device, the configuration data set further comprises further configuration information defining relationships between the network device and other devices coupled to, or which can communicate with, the network, wherein the further configuration information enables a user or client device from said users or client devices to maintain access to the network when roaming from the network device to another device among said other devices. coupling a network device to a network; activating the network device, so that the network device is in a request configuration state; sending from the network device to the network a configuration data set request message including a device identifier associated with the network device; receiving by the network device from the network a configuration data set associated with the device identifier, wherein the configuration data set comprises configuration information that identifies attributes of users or client devices that are permitted to access the network from or through the network device; loading the configuration data set into a non-volatile configuration storage within the network device, the configuration data set further comprises further configuration information defining relationships between the network device and other devices coupled to, or which can communicate with, the network, wherein the further configuration information enables a user or client device from said users or client devices to maintain access to the network when roaming from the network device to another device among said other devices.