mhurhangee/ep-ind-claims huggingface dataset:
A method for registering coordinate systems, comprising the steps of: positioning a calibration jig having markers that are opaque to an imaging modality in an imaged area, wherein the markers comprise at least two collinear marker quadruples having respective marker cross ratios; producing with the imaging modality an image of the markers; detecting the markers on the image,; on the image identifying collinear image quadruples of the detected markers,; computing respective image cross ratios of the collinear image quadruples,; defining candidate lines (244, 246) by associating at least one collinear marker quadruple and at least one collinear image quadruple that have matching marker cross ratios and image cross ratios according to predefined criteria, (230, 232); performing respective registrations of the calibration jig with the image using pairs of the candidate lines (244, 246),; determining residuals of the registrations; and selecting one of the registrations wherein the pair of the candidate lines (244, 246) thereof is associated with a qualifying residual that is smaller than a predetermined value,. positioning a calibration jig having markers that are opaque to an imaging modality in an imaged area, wherein the markers comprise at least two collinear marker quadruples having respective marker cross ratios; producing with the imaging modality an image of the markers; detecting the markers on the image,; on the image identifying collinear image quadruples of the detected markers,; computing respective image cross ratios of the collinear image quadruples,; defining candidate lines (244, 246) by associating at least one collinear marker quadruple and at least one collinear image quadruple that have matching marker cross ratios and image cross ratios according to predefined criteria, (230, 232); performing respective registrations of the calibration jig with the image using pairs of the candidate lines (244, 246),; determining residuals of the registrations; and selecting one of the registrations wherein the pair of the candidate lines (244, 246) thereof is associated with a qualifying residual that is smaller than a predetermined value,.
A method for controlling a deceleration to hover profile of an aircraft, comprising: receiving, with a processor, a signal indicative of a deceleration command; receiving with the processor, signals indicative of a sensed velocity (140, 142) and a commanded heading rate; determining, with the processor, a commanded velocity in response to the receiving of the deceleration command and the commanded heading rate; determining, with the processor, an estimated deceleration command as a function of the commanded velocity; and determining, with the processor, an actual deceleration command in response to the determining of the estimated deceleration command. receiving, with a processor, a signal indicative of a deceleration command; receiving with the processor, signals indicative of a sensed velocity (140, 142) and a commanded heading rate; determining, with the processor, a commanded velocity in response to the receiving of the deceleration command and the commanded heading rate; determining, with the processor, an estimated deceleration command as a function of the commanded velocity; and determining, with the processor, an actual deceleration command in response to the determining of the estimated deceleration command.
A radio communication system comprising: a base unit to be connected to a public wired network; and a mobile information terminal that includes a near field radio communication section performing communication with the base unit, as a cordless telephone of the base unit, using a near field communication protocol and that includes a public radio communication section performing radio communication with a public radio network, wherein: the mobile information terminal enters a sleep state when receiving no signal from the base unit and searches for the base unit when a user performs a predetermined operation, and when reconnected to the base unit, the mobile information terminal displays, on a display section, information relating to a matter that has occurred in the base unit during the sleep state, the information being transmitted from the base unit; and the base unit records the matter that has occurred in the base unit during the sleep state, and when reconnected to the mobile information terminal, the base unit transmits the information relating to the matter that has occurred in the base unit during the sleep state to the mobile information terminal. a base unit to be connected to a public wired network; and a mobile information terminal that includes a near field radio communication section performing communication with the base unit, as a cordless telephone of the base unit, using a near field communication protocol and that includes a public radio communication section performing radio communication with a public radio network, wherein: the mobile information terminal enters a sleep state when receiving no signal from the base unit and searches for the base unit when a user performs a predetermined operation, and when reconnected to the base unit, the mobile information terminal displays, on a display section, information relating to a matter that has occurred in the base unit during the sleep state, the information being transmitted from the base unit; and the base unit records the matter that has occurred in the base unit during the sleep state, and when reconnected to the mobile information terminal, the base unit transmits the information relating to the matter that has occurred in the base unit during the sleep state to the mobile information terminal. the mobile information terminal enters a sleep state when receiving no signal from the base unit and searches for the base unit when a user performs a predetermined operation, and when reconnected to the base unit, the mobile information terminal displays, on a display section, information relating to a matter that has occurred in the base unit during the sleep state, the information being transmitted from the base unit; and the base unit records the matter that has occurred in the base unit during the sleep state, and when reconnected to the mobile information terminal, the base unit transmits the information relating to the matter that has occurred in the base unit during the sleep state to the mobile information terminal.
A roller bearing arrangement (1, 26, 31, 34, 36, 37) for supporting parts of an energy system with at least two elements (2, 3) which are arranged concentrically to each other as well as at least section-wise arranged within each other, annular and counter-rotatable for connection to counter-rotatable parts of the energy system, wherein two counter-rotatable connecting elements (2, 3) are separated from each other by a gap and overlap each other in the radial direction at least partially, wherein furthermore at least two rows of ball-shaped rolling elements (17, 18) are provided in the area of a gap in the radially overlapping areas of the annular connecting elements (2, 3), each of which rolling along two races (19, 20) with concave cross-section, which at least section-wise overlap in the radial direction, wherein several races (19, 20) for the ball-shaped rolling elements (17, 18) are arranged in radially overlapping sections (5, 6) in such a manner that the bearing or contact angle which is included by the connecting line between the centres of the contact points of a rolling element (17, 18) with its two races relative to the annular plane is equal or greater than 45° so that such an axial rolling bearing serves to transmit mainly axially acting force components, and wherein at least one additional bearing is provided for transmitting mainly radially action force components whose resulting bearing or contact angle is smaller than 45°, characterised in that no races for radial roller bearings are machined into the connecting elements (2, 3), and wherein at least two rows of ball-shaped rolling elements (17, 18) are provided as well as at least one plain bearing, wherein the plain bearing comprises a sliding element which is accommodated in a groove-shaped recess of an inner one of the connecting elements (2, 3) which are arranged within each other, which is located between the two rows of ball-shaped rolling elements (17, 18) which roll off within the gap along races (19, 20) which are overlapping each other in the axial direction.
Use of an immunological method for detecting and/or quantifying in a urine sample the gluten ingested with the food diet by a human being, wherein the immunological method comprises at least one antibody that specifically recognises gluten protein epitopes selected from the group consisting of SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, SEQ ID NO: 11 and/or their deaminated derivatives, wherein the recognition of the gluten protein epitopes by the antibodies is indicative that the human being has ingested gluten.
A measuring apparatus comprising: an alternating-current signal generation unit (1, 2, 3a, 3b) that generates N, where N is a natural number not less than 2, detection alternating-current signals with different frequencies; a superposition unit that superposes the N detection alternating-current signals; an output terminal that outputs to a device under test a detection alternating-current signal obtained through the superposition; an input terminal that receives a measurement alternating-current signal output from the device under test to which the detection alternating-current signal has been applied; a multiplication processor (12a, 12b) that multiplies the measurement alternating-current signal by a corresponding detection alternating-current signal among the N detection alternating-current signals with different frequencies, thereby obtaining N synchronous detection signals; a low-pass filter processor (13a, 13b) that performs a low-pass filter process on the N synchronous detection signals, thereby obtaining N direct-current voltage signals; and a capacitance measuring unit that measures as a capacitance value of the device under test a capacitance value corresponding to voltage values of the N direct-current voltage signals. an alternating-current signal generation unit (1, 2, 3a, 3b) that generates N, where N is a natural number not less than 2, detection alternating-current signals with different frequencies; a superposition unit that superposes the N detection alternating-current signals; an output terminal that outputs to a device under test a detection alternating-current signal obtained through the superposition; an input terminal that receives a measurement alternating-current signal output from the device under test to which the detection alternating-current signal has been applied; a multiplication processor (12a, 12b) that multiplies the measurement alternating-current signal by a corresponding detection alternating-current signal among the N detection alternating-current signals with different frequencies, thereby obtaining N synchronous detection signals; a low-pass filter processor (13a, 13b) that performs a low-pass filter process on the N synchronous detection signals, thereby obtaining N direct-current voltage signals; and a capacitance measuring unit that measures as a capacitance value of the device under test a capacitance value corresponding to voltage values of the N direct-current voltage signals.
A signal sending method for use in a Multiple Input Multiple Output Filter Bank Multicarrier, MIMO-FBMC, system, comprising: processing at least two precoding code blocks so as to cancel interference from symbols of a boundary between the at least two precoding code blocks, wherein the processing at least two precoding code blocks comprises: determining a precoding code block on which interference exists; calculating an interference offset corresponding to the symbols of the boundary between the at least two precoding code blocks according to an acquired channel matrix, a precoding matrix used by the precoding code block on which interference exists, an interference coefficient table of a filter bank, and a symbol that generates interference; and adding the interference offset to at least one of the symbols of the boundary between the precoding code blocks to obtain a to-be-sent symbol in the boundary between the at least two precoding code blocks, wherein each of the at least two precoding code blocks comprise multiple time-frequency resource elements to which a single precoding matrix is applied; wherein the method further comprises: performing precoding on the to-be-sent symbol to obtain a precoded symbol; and sending the precoded symbol. determining a precoding code block on which interference exists; calculating an interference offset corresponding to the symbols of the boundary between the at least two precoding code blocks according to an acquired channel matrix, a precoding matrix used by the precoding code block on which interference exists, an interference coefficient table of a filter bank, and a symbol that generates interference; and adding the interference offset to at least one of the symbols of the boundary between the precoding code blocks to obtain a to-be-sent symbol in the boundary between the at least two precoding code blocks, wherein each of the at least two precoding code blocks comprise multiple time-frequency resource elements to which a single precoding matrix is applied; wherein the method further comprises: performing precoding on the to-be-sent symbol to obtain a precoded symbol; and sending the precoded symbol. performing precoding on the to-be-sent symbol to obtain a precoded symbol; and sending the precoded symbol.
A method for measuring an interference contrast in an interference-based, closed-loop, phase-modulating optical sensor device, said method comprising the steps of generating a first and a second optical wave by means of a light source, sending at least said first wave through a sensing element, wherein at least one refractive index of said sensing element depends on a measurand, sending said first and/or said second wave through a phase modulator for adding a phase shift modulation φ m between said first and second wave, wherein said phase shift modulation φ m is controlled by a control signal φ f, bringing said first and said second waves to interference and determining a measured interference signal in a light sensor, using a modulation amplitude of said measured signal for determining an error signal Δ I and feeding said error signal Δ I to a feedback loop for controlling said phase shift modulation φ m, wherein said feedback loop controls said control signal φ f with feedback loop gain G in order to keep said error signal Δ I zero, adjusting said feedback loop gain G to a value G = ∂ φ f ∂ ΔI | Δ ⁢ I = 0, said method being characterized by the step of using said gain G for determining the interference contrast of said waves.
A camera module comprising: a lens unit; a front body to which the lens unit is installed; a board unit spaced apart from the lens unit in a first direction, the board unit being coupled to the front body; an image sensor disposed on the board unit, the image sensor facing the lens unit; and a first adhesion unit disposed between the front body and the board unit, wherein the first adhesion unit couples the front body and the board unit to each other, and wherein the first adhesion unit comprises a long side and a short side, and characterized in that at least one through-hole is formed between the front body and the board unit, the through-hole 510 being configured to cause the space formed by the front body 200 and the board unit 300 and the external space to communicate with each other, and wherein the at least one through-hole is formed in one side of the long side and the short side of the first adhesion unit. a lens unit; a front body to which the lens unit is installed; a board unit spaced apart from the lens unit in a first direction, the board unit being coupled to the front body; an image sensor disposed on the board unit, the image sensor facing the lens unit; and a first adhesion unit disposed between the front body and the board unit, wherein the first adhesion unit couples the front body and the board unit to each other, and wherein the first adhesion unit comprises a long side and a short side, and characterized in that at least one through-hole is formed between the front body and the board unit, the through-hole 510 being configured to cause the space formed by the front body 200 and the board unit 300 and the external space to communicate with each other, and wherein the at least one through-hole is formed in one side of the long side and the short side of the first adhesion unit.
Method for fragmenting and/or weakening a material piece by means of high voltage discharges, comprising the steps of: a) providing a matrix of multiple high voltage electrodes, which are shiftable independently from one another along particularly parallel, particularly vertically oriented shifting axes, and each of which is attributed to a common or an own high voltage generator, by means of which they are chargeable with high voltage pulses; b) providing a material piece to be fragmented and/or weakened, immersed in a process liquid; c) guiding the material piece past the matrix of high voltage electrodes in a direction running at an angle, particularly substantially perpendicular, to the shifting axes of the high voltage electrodes; and d) generating high voltage punctures through the material piece during the guiding of the latter past the matrix of high voltage electrodes by charging the high voltage electrodes with high voltage pulses, wherein during the guiding of the material piece past the matrix of high voltage electrodes and the generation of high voltage punctures through the material piece, the high voltage electrodes are each shifted along their shifting axes in such a way that in each case they follows the contour of the material piece at a certain distance or follows the contour of the material piece in contact with the surface of the latter and during this time are immersed in the process liquid. a) providing a matrix of multiple high voltage electrodes, which are shiftable independently from one another along particularly parallel, particularly vertically oriented shifting axes, and each of which is attributed to a common or an own high voltage generator, by means of which they are chargeable with high voltage pulses; b) providing a material piece to be fragmented and/or weakened, immersed in a process liquid; c) guiding the material piece past the matrix of high voltage electrodes in a direction running at an angle, particularly substantially perpendicular, to the shifting axes of the high voltage electrodes; and d) generating high voltage punctures through the material piece during the guiding of the latter past the matrix of high voltage electrodes by charging the high voltage electrodes with high voltage pulses,
A rack cooling system, comprising: a frame including a number of dividers (108-1,108-2) internal to the rack that define a plurality of sections within the rack, wherein the plurality of sections includes: a number of electronics sections (104,106) including at least a first number of electronic components; and the rack cooling system characterised by a number of cooling sections including at least a first cooling system configured to cool at least the first number of electronic components via heat transfer through the number of dividers; wherein the number of dividers are movable to increase a volume of some sections of the plurality of sections and to decrease a volume of other sections of the plurality of sections, and wherein the number of dividers are configured to function as conductive cooling receivers that receive heat from the electronics sections and conduct the received heat away from the dividers. a frame including a number of dividers (108-1,108-2) internal to the rack that define a plurality of sections within the rack, wherein the plurality of sections includes: a number of electronics sections (104,106) including at least a first number of electronic components; and the rack cooling system characterised by a number of cooling sections including at least a first cooling system configured to cool at least the first number of electronic components via heat transfer through the number of dividers; a number of electronics sections (104,106) including at least a first number of electronic components; and the rack cooling system characterised by a number of cooling sections including at least a first cooling system configured to cool at least the first number of electronic components via heat transfer through the number of dividers; wherein the number of dividers are movable to increase a volume of some sections of the plurality of sections and to decrease a volume of other sections of the plurality of sections, and wherein the number of dividers are configured to function as conductive cooling receivers that receive heat from the electronics sections and conduct the received heat away from the dividers.
A method for producing a polycarbonate, comprising: continuously feeding a dihydroxy compound containing a dihydroxy compound having a portion represented by the following formula in a part of a structure thereof and a carbonic acid diester; and continuously performing polycondensation to produce a polycarbonate, wherein all of the following conditions to are satisfied: at least two reactor vessels connected in series are used, a reaction solution reacted in a first reactor of the first vessel is continuously fed to a second reactor of the second vessel, the first and second reactors are equipped with a reflux condenser, a reflux ratio in the first reactor is from 0.01 to 5 based on a distillate volume; and an internal pressure of the first reactor is from 5 to 80 kPa; (provided that a case where the portion represented by formula is a portion constituting a part of -CH 2 -OH is excluded). continuously feeding a dihydroxy compound containing a dihydroxy compound having a portion represented by the following formula in a part of a structure thereof and a carbonic acid diester; and continuously performing polycondensation to produce a polycarbonate, wherein all of the following conditions to are satisfied: at least two reactor vessels connected in series are used, a reaction solution reacted in a first reactor of the first vessel is continuously fed to a second reactor of the second vessel, the first and second reactors are equipped with a reflux condenser, a reflux ratio in the first reactor is from 0.01 to 5 based on a distillate volume; and an internal pressure of the first reactor is from 5 to 80 kPa; at least two reactor vessels connected in series are used, a reaction solution reacted in a first reactor of the first vessel is continuously fed to a second reactor of the second vessel, the first and second reactors are equipped with a reflux condenser, a reflux ratio in the first reactor is from 0.01 to 5 based on a distillate volume; and an internal pressure of the first reactor is from 5 to 80 kPa; (provided that a case where the portion represented by formula is a portion constituting a part of -CH 2 -OH is excluded).
Process for preparing a ceramic body having a surface roughness, said process comprising the step of depositing particles of a ceramic material on the surface of a ceramic basic body, characterized in that separate agglomerates comprising at least two particles and a binder binding the particles together are deposited on the surface of the basic body by projecting the agglomerates towards the basic body, the breaking load of the agglomerates to be projected being in the range of 1 to 7 mN.