mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: detecting a first code phase in a first periodically repeating pseudorandom encoded signal received from a first space vehicle at a reference location; and determining a code phase search range for detection of a second code phase in a second periodically repeating pseudorandom encoded signal received from a second SV at said reference location based, at least in part, on said detected code phase of said first received signal, an estimated azimuth angle to said first SV from said reference location and an estimated azimuth angle to said second SV from said reference location, wherein determining the code phase search range includes determining an estimated code phase of the signal received from the second SV based at least in part on the first code phase, and determining a code phase uncertainty ε CP2 according to: ε CP 2 = 1 / c ∗ Punc ∗ cos E 2 ∗ cos A 2 − cos E 1 ∗ cos A 1 2 + cos E 2 ∗ sin A 2 − cos E 1 ∗ sin A 1 2 1 / 2, where c is the speed of light, E1 is the estimated elevation angle to the first SV from said reference location, E2 is the estimated elevation angle to the second SV from said reference location, and Punc is the code phase uncertainty at the reference location in units of length. detecting a first code phase in a first periodically repeating pseudorandom encoded signal received from a first space vehicle at a reference location; and determining a code phase search range for detection of a second code phase in a second periodically repeating pseudorandom encoded signal received from a second SV at said reference location based, at least in part, on said detected code phase of said first received signal, an estimated azimuth angle to said first SV from said reference location and an estimated azimuth angle to said second SV from said reference location, wherein determining the code phase search range includes determining an estimated code phase of the signal received from the second SV based at least in part on the first code phase, and determining a code phase uncertainty ε CP2 according to: ε CP 2 = 1 / c ∗ Punc ∗ cos E 2 ∗ cos A 2 − cos E 1 ∗ cos A 1 2 + cos E 2 ∗ sin A 2 − cos E 1 ∗ sin A 1 2 1 / 2, where c is the speed of light, E1 is the estimated elevation angle to the first SV from said reference location, E2 is the estimated elevation angle to the second SV from said reference location, and Punc is the code phase uncertainty at the reference location in units of length. determining an estimated code phase of the signal received from the second SV based at least in part on the first code phase, and determining a code phase uncertainty ε CP2 according to: ε CP 2 = 1 / c ∗ Punc ∗ cos E 2 ∗ cos A 2 − cos E 1 ∗ cos A 1 2 + cos E 2 ∗ sin A 2 − cos E 1 ∗ sin A 1 2 1 / 2, where c is the speed of light, E1 is the estimated elevation angle to the first SV from said reference location, E2 is the estimated elevation angle to the second SV from said reference location, and Punc is the code phase uncertainty at the reference location in units of length.
A wire-spoke wheel comprising: an annular rim; a hub (20, 20') having a hole in which a wheel shaft is inserted; a plurality of wire spokes linking the rim and the hub (20, 20') together, the plurality of wire spokes each including a first end that is connected to the rim and a second end that is connected to the hub (20, 20'), wherein, in a plan view as viewed along a wheel axis direction, regarding each wire spoke, an imaginary line connecting the first end of the wire spoke and a center of the hole defines a first imaginary line; an imaginary line being orthogonal to the first imaginary line and passing through a center of the hole defines a second imaginary line; and when the hub (20, 20') is divided into two regions (R1, R2) by the second imaginary line, one of the two regions (R1, R2) that is located closer to the first end of the wire spoke defines a first region and the other of the two regions (R1, R2) defines a second region, wherein the second end of the wire spoke is connected to the hub (20, 20') in the second region of the hub (20, 20'). an annular rim; a hub (20, 20') having a hole in which a wheel shaft is inserted; a plurality of wire spokes linking the rim and the hub (20, 20') together, the plurality of wire spokes each including a first end that is connected to the rim and a second end that is connected to the hub (20, 20'), wherein, in a plan view as viewed along a wheel axis direction, regarding each wire spoke, an imaginary line connecting the first end of the wire spoke and a center of the hole defines a first imaginary line; an imaginary line being orthogonal to the first imaginary line and passing through a center of the hole defines a second imaginary line; and when the hub (20, 20') is divided into two regions (R1, R2) by the second imaginary line, one of the two regions (R1, R2) that is located closer to the first end of the wire spoke defines a first region and the other of the two regions (R1, R2) defines a second region, wherein the second end of the wire spoke is connected to the hub (20, 20') in the second region of the hub (20, 20').
A population of human renal proximal tubular cell (hPTC)-like cells in which 90% or greater of the cells express proteins AQP1, PEPT1, OAT3 and GLUT1, and the population of hPTC-like cells differentiated from a population of hiPSCs seeded at a density of about 5 000 to about 10 000 viable cells/cm 2, in renal epithelial cell culture medium on a surface coated with growth factor reduced Matrigel matrix, in the presence of bone morphogenic protein 2, and bone morphogenic protein 7, for a period of from about 8 to about 10 days.
A system for stateless automatic configuration of an IPv6 address, applied to an IPv6 dialup in an Ethernet link way, the system comprising a data card and a terminal, wherein the data card comprises a control instruction module, a router message processing module and an IPv6 address processing module, wherein the router message processing module is configured to, before establishment of a dialup connection, set and store an IPv6 address configuration way of the data card according to a IPv6 address allocation strategy of a current network; wherein when what the current network allocates is a prefix address, the IPv6 address configuration way of the data card is set to a stateless automatic address configuration way, when what the current network allocates is an interface identifier, the IPv6 address configuration way of the data card is set to a static configuration way; wherein the setting are implemented through an Attention, AT, command; after successful establishment of the IPv6 dialup connection and reception of a router solicitation request message transmitted by the terminal for acquiring a prefix address, determine the set IPv6 address allocation way, and when the set IPv6 address allocation way is determined as the static configuration way, discard a router advertisement response message carrying the prefix address and notify the IPv6 address processing module; the IPv6 address processing module is configured to, after receiving a notification transmitted by the router message processing module, acquire a valid IPv6 global unicast address from a PDP activation message and provide the IPv6 global unicast address to the control instruction module, wherein the valid IPv6 global unicast address comprises an interface identifier and a prefix address allocated by the network; and the control instruction module is configured to transmit a control instruction carrying the IPv6 global unicast address to a PC side software; and the terminal is configured to, after successful establishment of the IPv6 dialup connection, transmit the router solicitation request message for acquiring the prefix address to the data card; and receive the valid IPv6 global unicast address reported by the data card.
Helico-radio-axial multiphase compression or expansion impeller having at least one blade (Ai) mounted on a hub, said multiphase impeller being able to be disposed in a casing of a device for compressing or expanding a multiphase fluid, characterized in that said blade (Ai) has means for amplifying and distributing clearance flows between said blade (Ai) and said casing, said means for amplifying and distributing clearance flows having at least one zone in which the clearance between said casing and said blade (Ai) is increased compared with said clearance at the ends of said blade (Ai), the clearance being formed by a continuous variation in the clearance between said blade (Ai) and said casing, and/or said means for amplifying and distributing clearance flows having at least one zone in which the thickness of said blade (Ai) is reduced compared with the thickness at the ends of said blade (Ai).
A method of forming a hydrolysis resistant aqueous emulsion comprising a hydrolyzable silicon containing compound, said method comprising the steps of: A. forming a seed emulsion comprising; an emulsifier, water, and a first oil phase; and B. adding a second oil phase comprising a hydrolyzable silicon containing compound to the seed emulsion; wherein a weight ratio of the second oil phase comprising a hydrolyzable silicon containing compound to the first oil phase of the seed emulsion is from 0.5 to 50, wherein a total weight of the two oil phases in the emulsion is at least 60 weight percent and wherein a ratio of a molar concentration of water to a total molar concentration of the hydrolyzable silicon containing compound in the aqueous emulsion is less than 2. A. forming a seed emulsion comprising; an emulsifier, water, and a first oil phase; and an emulsifier, water, and a first oil phase; and B. adding a second oil phase comprising a hydrolyzable silicon containing compound to the seed emulsion;
An inorganic filler, comprising: a boron nitride agglomerate which is an agglomerate of planar boron nitride particles; and a coating layer formed on the surface of the agglomerate, and a hydroxyl group (-OH) is formed on the surface of the coating layer, characterized in that the coating layer comprises silicon oxycarbonitride(SiCNO) or silicon carbonitride(SiCN) formed in a void in the agglomerate. a boron nitride agglomerate which is an agglomerate of planar boron nitride particles; and a coating layer formed on the surface of the agglomerate, and a hydroxyl group (-OH) is formed on the surface of the coating layer, characterized in that the coating layer comprises silicon oxycarbonitride(SiCNO) or silicon carbonitride(SiCN) formed in a void in the agglomerate.
A control system for controlling steering of a driving apparatus, wherein the system being characterized by: - a projecting device configured to project a steering wheel image in front of a driver seat; - a camera device configured to take images of one or two hands on the projected steering wheel image periodically; - a processor configured by machine-readable instructions to: - determine a position of the one or two hands on the projected steering wheel image according to the images of the one or two hands, - calculate a movement of the one or two hands based on the determined position of the one or two hands on the projected steering wheel image, - determine a steering angle and a steering direction according to the movement of the one or two hands, and - output a control signal according to the steering angle and steering direction; and - an actuating device configured to receive the control signal and effectuate a maneuver of the driving apparatus according to the control signal. - a projecting device configured to project a steering wheel image in front of a driver seat; - a camera device configured to take images of one or two hands on the projected steering wheel image periodically; - a processor configured by machine-readable instructions to: - determine a position of the one or two hands on the projected steering wheel image according to the images of the one or two hands, - calculate a movement of the one or two hands based on the determined position of the one or two hands on the projected steering wheel image, - determine a steering angle and a steering direction according to the movement of the one or two hands, and - output a control signal according to the steering angle and steering direction; and - an actuating device configured to receive the control signal and effectuate a maneuver of the driving apparatus according to the control signal. - determine a position of the one or two hands on the projected steering wheel image according to the images of the one or two hands, - calculate a movement of the one or two hands based on the determined position of the one or two hands on the projected steering wheel image, - determine a steering angle and a steering direction according to the movement of the one or two hands, and - output a control signal according to the steering angle and steering direction; and - an actuating device configured to receive the control signal and effectuate a maneuver of the driving apparatus according to the control signal.
Apparatus for the laser ablation of a human cornea, comprising - an excimer laser beam source that radiates in the UV wavelength range, for emitting a focussed treatment laser beam, - a coherence-optical interferometric measuring device for measuring the distance of a given measurement point or measurement region of an eye to be treated from a reference point that has a known relationship with the focal position of the treatment laser beam, and - an evaluation and control unit, which is configured to capture, on the basis of the distance measurement data of the measuring device, the coincidence or non-coincidence of a desired action location of the treatment laser beam at or in the eye and the focal position of the treatment laser beam and, in the case of non-coincidence, cause an indication of an adjustment requirement on an indicating unit, wherein the desired action location lies at a known relative z-position in relation to the predetermined measurement point or measurement region, where z denotes the propagation direction of the treatment laser beam, wherein the indicated adjustment requirement specifies direction and dimension of the required vertical adjustment of the patient. - an excimer laser beam source that radiates in the UV wavelength range, for emitting a focussed treatment laser beam, - a coherence-optical interferometric measuring device for measuring the distance of a given measurement point or measurement region of an eye to be treated from a reference point that has a known relationship with the focal position of the treatment laser beam, and - an evaluation and control unit, which is configured to capture, on the basis of the distance measurement data of the measuring device, the coincidence or non-coincidence of a desired action location of the treatment laser beam at or in the eye and the focal position of the treatment laser beam and, in the case of non-coincidence, cause an indication of an adjustment requirement on an indicating unit, wherein the desired action location lies at a known relative z-position in relation to the predetermined measurement point or measurement region, where z denotes the propagation direction of the treatment laser beam, wherein the indicated adjustment requirement specifies direction and dimension of the required vertical adjustment of the patient.
A method of encoding information in a two-dimensional barcode (10, 19, 20), the barcode (10, 19, 20) comprising an orientation pattern (14, 15, 24) and a payload data pattern (13, 23) both being compiled of first and second type elements (11, 12), the method comprising the steps of: - obtaining information to be encoded in the two-dimensional barcode; said method characterized by - extracting, from the obtained information, first and second information, wherein the first information is to be encoded in the payload data pattern of the two- dimensional barcode; - generating the payload data pattern based on the first information; - compiling a two-dimensional barcode pattern from the generated payload data pattern and an orientation pattern, wherein a two-dimensional transformation is considered based on the second information, the two-dimensional transformation applying at least to the payload data pattern, wherein the two-dimensional transformation comprises at least one of a rotation and a reflection transformation. - obtaining information to be encoded in the two-dimensional barcode; said method characterized by - extracting, from the obtained information, first and second information, wherein the first information is to be encoded in the payload data pattern of the two- dimensional barcode; - generating the payload data pattern based on the first information; - compiling a two-dimensional barcode pattern from the generated payload data pattern and an orientation pattern, wherein a two-dimensional transformation is considered based on the second information, the two-dimensional transformation applying at least to the payload data pattern,
Heat accumulator having a heating water storage tank with different heating water temperatures (4, 4', 4"), having a flow channel which is connected for circulation to the heating water storage tank and has free convection of the heating water, and having at least one line provided in the flow channel for guiding a liquid which is in heat exchange with the heating water, wherein at least the wall of the flow channel has a thermal insulation at least in certain regions, the flow channel is designed to extend vertically in one direction and the line is provided in the flow channel to run helically, characterized in that the line is designed as a corrugated tube, wherein the flow channel extends substantially along the jacket of the heating water storage tank, and in that the line is designed as a service water line for heating service water, wherein a plurality of service water lines (9, 9', 9", 9′′′) connected in parallel are provided in the flow channel.
Changing device for a multiple stage tool, having: a form-locking and/or force-locking means which is designed to connect the changing device with a support device of a base unit in a form-locking and/or force-locking manner, and a connection means (24, A) which is designed to connect the changing device with the multiple stage tool, characterised in that the changing device has a transfer device (23a, 23b) which is designed to transfer information and/or energy between a base unit connected to the changing device and a multiple stage tool connected to the changing device, wherein the transfer device (23a, 23b) is designed to effect an adjustment of the stages of the multiple stage tool by means of the transfer of the information. a form-locking and/or force-locking means which is designed to connect the changing device with a support device of a base unit in a form-locking and/or force-locking manner, and a connection means (24, A) which is designed to connect the changing device with the multiple stage tool, characterised in that the changing device has a transfer device (23a, 23b) which is designed to transfer information and/or energy between a base unit connected to the changing device and a multiple stage tool connected to the changing device, wherein the transfer device (23a, 23b) is designed to effect an adjustment of the stages of the multiple stage tool by means of the transfer of the information.
A mixing method using a manufacturing apparatus comprising a mixing machine comprising a support defining a receiving housing, the receiving housing comprising a first receiving location configured to receive a first deformable capsule and a second receiving location configured to receive a second deformable capsule, the first and second capsules (3,4) being intended to be fluidly linked to each other and containing respectively a first formulation and a second formulation, the manufacturing apparatus comprising an actuation system configured to transmit a pressure force to the first and second capsules (3, 4) in order to move the content of the first capsule in the second capsule, and vice versa, the mixing machine comprising a heater element configured to heat at least one of the first and second capsules when the first and second capsules (3, 4) are received in the mixing machine, characterized in that the method comprises the following steps: - Heating step and/or kneading step (Em4, Em5) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element up to a target temperature (Tc); then - Step of cooling with kneading through setting in motion of the actuation system up to a withdrawal temperature (Tr) from which the kneading is stopped. the manufacturing apparatus comprising an actuation system configured to transmit a pressure force to the first and second capsules (3, 4) in order to move the content of the first capsule in the second capsule, and vice versa, the mixing machine comprising a heater element configured to heat at least one of the first and second capsules when the first and second capsules (3, 4) are received in the mixing machine, characterized in that the method comprises the following steps: - Heating step and/or kneading step (Em4, Em5) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element up to a target temperature (Tc); then - Step of cooling with kneading through setting in motion of the actuation system up to a withdrawal temperature (Tr) from which the kneading is stopped. - Heating step and/or kneading step (Em4, Em5) comprising, alternately or simultaneously, setting in motion of the actuation system and heating by means of the heater element up to a target temperature (Tc); then - Step of cooling with kneading through setting in motion of the actuation system up to a withdrawal temperature (Tr) from which the kneading is stopped.
A data transmission device, comprising: first and second lines only; a transmitter configured to convert received binary data into ternary data and output each bit of the ternary data onto the first and second lines as a logic value within a group consisting of: -1, corresponding to a first voltage level, 0, corresponding to a second voltage level, and 1, corresponding to a third voltage level, wherein the transmitter is configured to toggle only one of the first and second lines to provide the logic value of -1 or 1 during each of a plurality of consecutive 2-bit binary data transmission time intervals; and a receiver configured to convert the ternary data received from the first and second lines into binary data. first and second lines only; a transmitter configured to convert received binary data into ternary data and output each bit of the ternary data onto the first and second lines as a logic value within a group consisting of: -1, corresponding to a first voltage level, 0, corresponding to a second voltage level, and 1, corresponding to a third voltage level, wherein the transmitter is configured to toggle only one of the first and second lines to provide the logic value of -1 or 1 during each of a plurality of consecutive 2-bit binary data transmission time intervals; and a receiver configured to convert the ternary data received from the first and second lines into binary data.