mhurhangee/ep-ind-claims huggingface dataset:
Method of providing a low noise color image, the method comprising the steps of: simultaneously exposing an image sensor to visible spectral energy using a first aperture and non-visible spectral energy using a second aperture that is smaller than the first aperture, said image sensor comprising an array of pixels, wherein the array of pixels comprise first pixels configured for obtaining first image data associated with said visible spectral energy and second pixels configured for obtaining second image data associated with said non-visible spectral energy; generating first and second image data; subjecting said first image data to a low-pass filter and said second image data to a high-pass filter; forming a color image by adding at least part of the high frequency components of said second image data to at least part of the low frequency components of said first image data. simultaneously exposing an image sensor to visible spectral energy using a first aperture and non-visible spectral energy using a second aperture that is smaller than the first aperture, said image sensor comprising an array of pixels, wherein the array of pixels comprise first pixels configured for obtaining first image data associated with said visible spectral energy and second pixels configured for obtaining second image data associated with said non-visible spectral energy; generating first and second image data; subjecting said first image data to a low-pass filter and said second image data to a high-pass filter; forming a color image by adding at least part of the high frequency components of said second image data to at least part of the low frequency components of said first image data.
A method of producing a protein multimer-nucleic acid complex comprising the protein multimer and a nucleic acid encoding any one target component of the protein multimer, which comprises the following steps: i) translating a nucleic acid encoding the target component into the target component by an in vitro translation system to give a translation product containing a target component-nucleic acid complex containing the target component and the nucleic acid encoding the target component, and ii) translating a nucleic acid encoding a non-target component constituting the protein multimer together with the target component into the non-target component by adding the nucleic acid encoding the non-target component to the translation product obtained in i) to give the non-target component, associating the non-target component with the target component in the target component-nucleic acid complex to form the protein multimer, thus affording the protein multimer-nucleic acid complex comprising the protein multimer and the nucleic acid encoding the target component, wherein the target component is a component of interest among components constituting the protein multimer, and the non-target component is a component other than the target component, constituting the protein multimer together with the target component. i) translating a nucleic acid encoding the target component into the target component by an in vitro translation system to give a translation product containing a target component-nucleic acid complex containing the target component and the nucleic acid encoding the target component, and ii) translating a nucleic acid encoding a non-target component constituting the protein multimer together with the target component into the non-target component by adding the nucleic acid encoding the non-target component to the translation product obtained in i) to give the non-target component, associating the non-target component with the target component in the target component-nucleic acid complex to form the protein multimer, thus affording the protein multimer-nucleic acid complex comprising the protein multimer and the nucleic acid encoding the target component,
An apparatus for manufacturing an agglomerate for thermal spraying, the apparatus comprising: a chamber; a vibratory conveyor within the chamber; a first powder source within or coupled to the chamber; a first powder flowpath from the first powder source through the chamber and passing along the vibratory conveyor; a second powder source within or coupled to the chamber; a second powder flowpath from the second powder source merging with the first powder flowpath along the vibratory conveyor; a third powder source within or coupled to the chamber; a third powder flowpath from the third powder source merging with the first powder flowpath along the vibratory conveyor; a vaporizer within the chamber or coupled thereto to deliver vaporized liquid to the chamber; means for controlling the temperature of the first powder source; means for controlling the temperature of the third powder source; and means for controlling the temperature of the second powder source or a temperature control system for a chamber interior. a chamber; a vibratory conveyor within the chamber; a first powder source within or coupled to the chamber; a first powder flowpath from the first powder source through the chamber and passing along the vibratory conveyor; a second powder source within or coupled to the chamber; a second powder flowpath from the second powder source merging with the first powder flowpath along the vibratory conveyor; a third powder source within or coupled to the chamber; a third powder flowpath from the third powder source merging with the first powder flowpath along the vibratory conveyor; a vaporizer within the chamber or coupled thereto to deliver vaporized liquid to the chamber; means for controlling the temperature of the first powder source; means for controlling the temperature of the third powder source; and means for controlling the temperature of the second powder source or a temperature control system for a chamber interior.
A process for the preparation of ethylene glycol wherein a gas phase composition comprising C 1-3 -oxygenate compounds is hydrogenated in the presence of a catalyst and hydrogen.
Sensor for detecting the direction of a magnetic field in a plane, wherein the direction of the magnetic field is definable by means of specifying a polar angle φ, wherein the sensor has a number of n magnetic field sensors (3.0 to 3.7), and wherein the sensor has logic and evaluation circuits, characterised in that a measuring axis (8.1 to 8.4) is assigned to each magnetic field sensor in such a way that the absolute value of the output signal of the magnetic field sensor achieves a maximum when the magnetic field runs parallel to the assigned measuring axis, that the number k of measuring axes amounts to at least three and that the logic and evaluation circuits are configured to determine the direction of the magnetic field in the plane with the following steps: selecting two magnetic field sensors that belong to different measuring axes and the output signals of which in terms of absolute value are smaller than the output signals of the magnetic field sensors that belong to other measuring axes, and determining the angle φ from the output signals of the two selected magnetic field sensors. selecting two magnetic field sensors that belong to different measuring axes and the output signals of which in terms of absolute value are smaller than the output signals of the magnetic field sensors that belong to other measuring axes, and determining the angle φ from the output signals of the two selected magnetic field sensors.
Tool head (1, 501, 701) having a tool head axis (7, 507, 707) that acts as a rotation axis upon connection to a rotating machine spindle (80, 580) of a machine tool, and having a main body (2, 502, 702) which holds an adjustable slide (6, 506, 706) that is able to be loaded with a cutting tool (10, 510, 710), wherein the main body (2, 502, 702) bears an atomizer system (36, 536, 736) for providing cooling lubricant aerosol (38, 738) to the cutting tool (10, 510, 710), characterized in that the atomizer system contains a nozzle device (42, 742), received on the slide (6, 506, 706), for producing cooling lubricant aerosol (38, 738), said nozzle device (42, 542, 742) being able to be supplied with gaseous fluid (48, 548, 748), in particular with compressed air, and with cooling lubricant (46, 546, 746) via a line (76, 576, 776) for gaseous fluid, in particular compressed air, having a movable line section that compensates for a displacement movement of the slide (6, 506, 706) in the main body (2, 502, 702), and via a line (66, 566, 766) for cooling lubricant having a movable line section (68, 768) that compensates for a displacement movement of the slide (6, 506, 706) in the main body (2, 502, 702).
A variable displacement fuel pump, comprising: a pump body; a barrel disposed within the pump body; at least one piston disposed in the barrel, wherein the at least one piston is configured to reciprocate within the barrel; a hydraulic actuator operatively coupled to the barrel, wherein the hydraulic actuator rotates the barrel to a selected barrel angle relative to the at least one piston; and a position sensor operatively coupled to the hydraulic actuator to provide an actuator position parameter. a pump body; a barrel disposed within the pump body; at least one piston disposed in the barrel, wherein the at least one piston is configured to reciprocate within the barrel; a hydraulic actuator operatively coupled to the barrel, wherein the hydraulic actuator rotates the barrel to a selected barrel angle relative to the at least one piston; and a position sensor operatively coupled to the hydraulic actuator to provide an actuator position parameter.
A system for phasing M laser sources with the same wavelength centred around λ 0, having a periodic spatial configuration, with M being an integer > 2, which system comprises: - means for collimating and directing the M beams originating from the sources on a combining diffractive optical element with a periodic phase grating, with an angle of incidence θ 2k that differs from one beam to the next, said angles of incidence being determined as a function of the period of the grating; and - means for controlling the phases of said sources on the basis of a feedback signal originating from the combined beams; - means for sampling a fraction of the combined beams; - a Fourier lens on the path of said fraction of the combined beams, said lens having an object plane and an image plane, with the combining diffractive optical element in its object plane; - a matrix of detectors in the image plane of the Fourier lens capable of detecting intensity distributions of the fraction of the combined beams; characterised in that it comprises: - means for computing the feedback signal on the basis of said intensity distributions, which means comprise means for computing the product of the distribution of the intensities detected in the plane of the matrix of detectors through the inverse of a (2M-1) x (2M-1) sized matrix if M is odd and of a 2M x 2M sized matrix if M is even, defined by coefficients obtained by the Fourier series development of the phase of the combining diffractive optical element, sampled over a period. - means for collimating and directing the M beams originating from the sources on a combining diffractive optical element with a periodic phase grating, with an angle of incidence θ 2k that differs from one beam to the next, said angles of incidence being determined as a function of the period of the grating; and - means for controlling the phases of said sources on the basis of a feedback signal originating from the combined beams; - means for sampling a fraction of the combined beams; - a Fourier lens on the path of said fraction of the combined beams, said lens having an object plane and an image plane, with the combining diffractive optical element in its object plane; - a matrix of detectors in the image plane of the Fourier lens capable of detecting intensity distributions of the fraction of the combined beams; - means for computing the feedback signal on the basis of said intensity distributions, which means comprise means for computing the product of the distribution of the intensities detected in the plane of the matrix of detectors through the inverse of a (2M-1) x (2M-1) sized matrix if M is odd and of a 2M x 2M sized matrix if M is even, defined by coefficients obtained by the Fourier series development of the phase of the combining diffractive optical element, sampled over a period.
A method comprising: determining the current wading depth from ground level of a vehicle by means of a wading sensor, the current wading depth being the depth of water at the vehicle; and indicating the current wading depth on a display, wherein indicating the current wading depth on a display comprises; displaying an elevation of the vehicle on which is superimposed the current wading depth, wherein the current wading depth is indicated by a line or colour wash superimposed on the elevation of the vehicle. determining the current wading depth from ground level of a vehicle by means of a wading sensor, the current wading depth being the depth of water at the vehicle; and indicating the current wading depth on a display, wherein indicating the current wading depth on a display comprises;
System for controlling patient recovery from anesthesia with an inhalation anesthesia agent, wherein the patient during the recovery is ventilated with a ventilator, the system comprising: - a breathing device for ventilating a patient, the breathing device comprising tubing to connect the breathing device to a patient's breathing circuit, - a ventilator connected to the breathing device to provide a pressurized breathing gas, - a ventilator controller connected to the ventilator to control the gas volume and breath frequency provided with the ventilator, the ventilator controller being adapted to detect patient spontaneous breaths and to reduce the ventilator support to match the measured CO 2 concentration in the end-expiration with a set target level, - a gas mixer and vaporizer for providing patient breathing gas, the gas mixer and vaporizer being connected to the ventilator, - a patient gas controller connected to the gas mixer and vaporizer for controlling the composition of the fresh patient breathing gas provided with the gas mixer and vaporizer, - a sensor connected to the patient gas controller, for providing at least monitored expiratory O 2 concentration for the patient, the patient gas controller being adapted to compare the expiratory O 2 concentration for the patient with a target concentration for said expiratory O 2 concentration and to provide instructions for the gas mixer to control the composition of the patient breathing gas to thereby allow the expiratory O 2 concentration to match said target O 2 concentration, wherein the sensor is adapted to determine the expiratory CO 2 concentration and is connected to the ventilator controller to allow the ventilator controller to control the ventilation pressure and frequency provided by means of the ventilator. - a breathing device for ventilating a patient, the breathing device comprising tubing to connect the breathing device to a patient's breathing circuit, - a ventilator connected to the breathing device to provide a pressurized breathing gas, - a ventilator controller connected to the ventilator to control the gas volume and breath frequency provided with the ventilator, the ventilator controller being adapted to detect patient spontaneous breaths and to reduce the ventilator support to match the measured CO 2 concentration in the end-expiration with a set target level, - a gas mixer and vaporizer for providing patient breathing gas, the gas mixer and vaporizer being connected to the ventilator, - a patient gas controller connected to the gas mixer and vaporizer for controlling the composition of the fresh patient breathing gas provided with the gas mixer and vaporizer, - a sensor connected to the patient gas controller, for providing at least monitored expiratory O 2 concentration for the patient, the patient gas controller being adapted to compare the expiratory O 2 concentration for the patient with a target concentration for said expiratory O 2 concentration and to provide instructions for the gas mixer to control the composition of the patient breathing gas to thereby allow the expiratory O 2 concentration to match said target O 2 concentration,
A packaging apparatus for article groups, the article groups each comprising at least two articles, the packaging apparatus comprising at least one feeding transport device for the article groups and at least one first handling apparatus for the article groups, • wherein the first handling apparatus is configured to fit at least one packaging blank onto the articles of an article group in order to form a pack, • wherein the packaging apparatus comprises at least one first inspection device, • wherein the first inspection device is configured to detect a deficient securing of the packaging blank to the articles of the article group, • in which deficient securing only a part of the articles of the article group are gathered together by the packaging blank. • wherein the first handling apparatus is configured to fit at least one packaging blank onto the articles of an article group in order to form a pack, • wherein the packaging apparatus comprises at least one first inspection device, • wherein the first inspection device is configured to detect a deficient securing of the packaging blank to the articles of the article group, • in which deficient securing only a part of the articles of the article group are gathered together by the packaging blank.
A multi-layer piezoelectric element, comprising: a columnar stacked body comprising an active portion comprising a plurality of piezoelectric layers and a plurality of internal electrode layers (3a, 3b) alternately laminated, and inactive portions comprising a plurality of piezoelectric layers laminated, the inactive portions arranged at both ends in a stacked direction of the active portion; and a pair of external electrodes (4a, 4b) arranged on side faces of the columnar stacked body, the pair of external electrodes electrically connected to the internal electrode layers alternately, wherein in at least one interlayer portion of the inactive portions, there are metal particles having a particle size smaller than that of piezoelectric ceramic particles forming the piezoelectric layers of the inactive portions, and the metal particles are scattered in a range including a region in which the internal electrode layers overlap each other when viewed in the stacked direction of the columnar stacked body. a columnar stacked body comprising an active portion comprising a plurality of piezoelectric layers and a plurality of internal electrode layers (3a, 3b) alternately laminated, and inactive portions comprising a plurality of piezoelectric layers laminated, the inactive portions arranged at both ends in a stacked direction of the active portion; and an active portion comprising a plurality of piezoelectric layers and a plurality of internal electrode layers (3a, 3b) alternately laminated, and inactive portions comprising a plurality of piezoelectric layers laminated, the inactive portions arranged at both ends in a stacked direction of the active portion; and a pair of external electrodes (4a, 4b) arranged on side faces of the columnar stacked body, the pair of external electrodes electrically connected to the internal electrode layers alternately, wherein in at least one interlayer portion of the inactive portions, there are metal particles having a particle size smaller than that of piezoelectric ceramic particles forming the piezoelectric layers of the inactive portions, and the metal particles are scattered in a range including a region in which the internal electrode layers overlap each other when viewed in the stacked direction of the columnar stacked body.
An ultrasound system comprising: a probe comprising a transducer array; an acquisition module coupled to the transducer array; a transceiver coupled to the acquisition module for communicating with an adjustment module, wherein the adjustment module is configured to automatically make adjustments to beamformed acoustic pulse characteristics of the probe; and an image processor for generating ultrasound images from acoustic data received by the transducer array; wherein the image processor is configured to detect a position of a medical device within an image field including a region of interest, the position being detected based on an electrical response of an acoustic sensor disposed on the medical device as scan lines generated by the transducer array sweep across the acoustic sensor; wherein the adjustments to the beamformed acoustic pulse characteristics are in accordance with the detected position of the medical device; and wherein the adjustments to the beamformed acoustic pulse characteristics are selected from a set of pre-established user image adjustment selections available on a user interface. a probe comprising a transducer array; an acquisition module coupled to the transducer array; a transceiver coupled to the acquisition module for communicating with an adjustment module, wherein the adjustment module is configured to automatically make adjustments to beamformed acoustic pulse characteristics of the probe; and an image processor for generating ultrasound images from acoustic data received by the transducer array; wherein the image processor is configured to detect a position of a medical device within an image field including a region of interest, the position being detected based on an electrical response of an acoustic sensor disposed on the medical device as scan lines generated by the transducer array sweep across the acoustic sensor; wherein the adjustments to the beamformed acoustic pulse characteristics are in accordance with the detected position of the medical device; and wherein the adjustments to the beamformed acoustic pulse characteristics are selected from a set of pre-established user image adjustment selections available on a user interface.