mhurhangee/patent-ind-claim-en huggingface dataset:
A tunable coupler assembly for linking two components in a superconducting circuit , comprising: a plurality of circuit elements, each implemented as one of an inductor, a capacitor, and a Josephson junction, connected in series on a first path connecting the two components ; and a plurality of tunable oscillators (124, 125, 232 - 235, 732 - 735), each tunable oscillator (124, 125, 232 - 235, 732 - 735) connecting the first path which is connecting the two components to a second path which is connecting the two components , each tunable oscillator (124, 125, 232 - 235, 732 - 735) being responsive to a control signal to tune an associated resonance frequency of the tunable oscillator (124, 125, 232 - 235, 732 - 735) within a first frequency range and within a second frequency range, wherein the two components are coupled when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said first frequency range, and wherein the two components are isolated when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said second frequency range. a plurality of circuit elements, each implemented as one of an inductor, a capacitor, and a Josephson junction, connected in series on a first path connecting the two components ; and a plurality of tunable oscillators (124, 125, 232 - 235, 732 - 735), each tunable oscillator (124, 125, 232 - 235, 732 - 735) connecting the first path which is connecting the two components to a second path which is connecting the two components , each tunable oscillator (124, 125, 232 - 235, 732 - 735) being responsive to a control signal to tune an associated resonance frequency of the tunable oscillator (124, 125, 232 - 235, 732 - 735) within a first frequency range and within a second frequency range, wherein the two components are coupled when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said first frequency range, and wherein the two components are isolated when the plurality of tunable oscillators (124,125, 232-235, 732 - 735) is tuned within said second frequency range.
A head-mounted display device for interface with a medical device configured to perform an invasive procedure on a patient, the head-mounted display device comprising: a frame configured to be mounted on a person's head; a display; a sensor; a wireless transceiver configured to communicate with a network; and a processing circuit coupled to the frame, the display, the sensor and the wireless transceiver, wherein the processing circuit is configured to receive at least one of sound and image data from the sensor, wherein the at least one of sound and image data is associated with a person in the vicinity of the head-mounted display device, the head-mounted display device being characterised in that the processing circuit is further configured to compare the at least one of sound and image data to prestored sound and/or image data associated with the patient who is to receive the invasive procedure using the medical device, such that the person in the vicinity of the head-mounted display device is identified as the patient who is to receive the invasive procedure, and to generate output data based on the comparison, wherein the output data comprises a command to the medical device, wherein the command provides an authorization or enabling message to the medical device upon confirmation by the head-mounted display device that the patient is the correct patient to receive the invasive procedure, wherein the output data comprises a programming message configured to program an operational characteristic of the medical device configured to perform the invasive procedure on the patient. a frame configured to be mounted on a person's head; a display; a sensor; a wireless transceiver configured to communicate with a network; and a processing circuit coupled to the frame, the display, the sensor and the wireless transceiver, wherein the processing circuit is configured to receive at least one of sound and image data from the sensor, wherein the at least one of sound and image data is associated with a person in the vicinity of the head-mounted display device, the head-mounted display device being characterised in that the processing circuit is further configured to compare the at least one of sound and image data to prestored sound and/or image data associated with the patient who is to receive the invasive procedure using the medical device, such that the person in the vicinity of the head-mounted display device is identified as the patient who is to receive the invasive procedure, and to generate output data based on the comparison, wherein the output data comprises a command to the medical device, wherein the command provides an authorization or enabling message to the medical device upon confirmation by the head-mounted display device that the patient is the correct patient to receive the invasive procedure, wherein the output data comprises a programming message configured to program an operational characteristic of the medical device configured to perform the invasive procedure on the patient.
A force measuring device for measuring web tensions of a running material web that comprises a longitudinal direction, defined by the running direction, and a transverse direction, the force measuring device comprising an axis and, supported on the axis, a measuring roller wrapped around by the material web, characterized in that - the measuring roller is formed as a segmented measuring roller having two or more measuring segments that are separately slidable on the axis and lockable in a measuring position on the axis in order to position the measuring segments in the transverse direction of the material web in accordance with desired measuring positions such that longitudinal sections of the material web wrap around one measuring segment each, - the measuring segments each comprise a load cell that serves to determine the web tension of the longitudinal section of the material web wrapped around the respective measuring segment and that provides a mount with which the measuring segment rests on the axis, and - the axis is furnished with electrical conductors that extend substantially in the axial direction across the entire width, that are axially contactable at every position and with which the measuring signals provided by the load cells of the measuring segments are conductible to an evaluation unit arranged on an axis end. - the measuring roller is formed as a segmented measuring roller having two or more measuring segments that are separately slidable on the axis and lockable in a measuring position on the axis in order to position the measuring segments in the transverse direction of the material web in accordance with desired measuring positions such that longitudinal sections of the material web wrap around one measuring segment each, - the measuring segments each comprise a load cell that serves to determine the web tension of the longitudinal section of the material web wrapped around the respective measuring segment and that provides a mount with which the measuring segment rests on the axis, and - the axis is furnished with electrical conductors that extend substantially in the axial direction across the entire width, that are axially contactable at every position and with which the measuring signals provided by the load cells of the measuring segments are conductible to an evaluation unit arranged on an axis end.
System for controlled distribution of components , particularly components for timepieces, for an installation for automatic assembly of all or part of an article produced from at least one of these components , particularly of a timepiece, the system comprising: - a vibrating device in which said components are placed in bulk, which is provided with first and second compartments connected together at their ends by first and second passage zones of this device such as to form a closed circuit in which the components can flow, and - an articulated gripping arm provided to distribute said components to said automatic assembly installation , the vibrating device comprising first and second planes inclined in opposite directions included, respectively, in the first and second compartments , said components being able to progress along the first and second inclined planes towards a supply platform on which at least one component can be arranged in advance of its seizure by the articulated gripping arm , said supply platform being located in the second compartment at an exit (S) of the second inclined plane , characterised in that the supply platform also comprises first and second parts said first part is connected to two guide portions , this first part having with these two guide portions a transverse section of essentially trapezoidal shape, the two guide portions each forming an obtuse angle with this first part and said second part comprising two guide portions and being integral with the first part and having the two guide portions defined on a part of the lateral sides of the first part , each guide portion extending transversely from a lateral side of the first part towards the corresponding side wall of the second compartment , these two guide portions extending longitudinally between an exit (S) of the second inclined plane and a sorting/selection zone included on the upper face of the first part , from the lateral ends of these two guide portions are arranged in close proximity to lateral walls of the second compartment or even in contact with these walls. - a vibrating device in which said components are placed in bulk, which is provided with first and second compartments connected together at their ends by first and second passage zones of this device such as to form a closed circuit in which the components can flow, and - an articulated gripping arm provided to distribute said components to said automatic assembly installation ,
A method of determining a transmission power for device to device, D2D, transmissions between a first user equipment device and a second user equipment device using transmission resources being used for transmissions to a cellular network entity by a third user equipment device, the method comprising: determining a measure of a path loss from the cellular network entity to the first user equipment device, using the measure of the path loss to determine a maximum transmission power such that the D2D transmissions are received at the cellular network entity with a signal level around or below a noise level, characterized in that the determining of the maximum transmission power includes using a correction value for compensating for a difference between the measured downlink path loss from the cellular network entity to the first user equipment device and an uplink path loss from the first user equipment device to the cellular network entity, and in that the correction value is determined by multiplying a logarithm of a carrier frequency for the D2D transmissions divided by a carrier frequency of transmissions from the cellular network entity to the first user equipment device by a constant. determining a measure of a path loss from the cellular network entity to the first user equipment device, using the measure of the path loss to determine a maximum transmission power such that the D2D transmissions are received at the cellular network entity with a signal level around or below a noise level, characterized in that the determining of the maximum transmission power includes using a correction value for compensating for a difference between the measured downlink path loss from the cellular network entity to the first user equipment device and an uplink path loss from the first user equipment device to the cellular network entity, and in that the correction value is determined by multiplying a logarithm of a carrier frequency for the D2D transmissions divided by a carrier frequency of transmissions from the cellular network entity to the first user equipment device by a constant.
Freeze-drying device comprising: - an evaporation chamber comprising means of heating said evaporation chamber that are configured to sublimate the water contained in the frozen products intended to be placed in the evaporation chamber , - a condensing chamber communicating with said evaporation chamber, and comprising means of cooling said condensing chamber that are configured to transform the vapor coming from said evaporation chamber into ice, - a vacuum pump connected to said condensing chamber , - said evaporation chamber and said condensing chamber being mounted secured to one another around a rotatable axis , characterized in that the device further comprises: - a products inlet and outlet connected to the evaporation chamber by flexible connectors, the products inlet and outlet being mounted fixedly with respect to the evaporation chamber, and - a motor driving said axis on itself with the following back-and-forth movement: - a first movement driving said axis in a first direction of rotation with an angle of rotation (α1) between 5° and 90°; and - a second movement driving said axis in a second direction of rotation, opposite to the first angle of rotation, with an angle of rotation (α2) between -5° and -90°. - an evaporation chamber comprising means of heating said evaporation chamber that are configured to sublimate the water contained in the frozen products intended to be placed in the evaporation chamber , - a condensing chamber communicating with said evaporation chamber, and comprising means of cooling said condensing chamber that are configured to transform the vapor coming from said evaporation chamber into ice, - a vacuum pump connected to said condensing chamber , - said evaporation chamber and said condensing chamber being mounted secured to one another around a rotatable axis , characterized in that the device further comprises: - a products inlet and outlet connected to the evaporation chamber by flexible connectors, the products inlet and outlet being mounted fixedly with respect to the evaporation chamber, and - a motor driving said axis on itself with the following back-and-forth movement: - a first movement driving said axis in a first direction of rotation with an angle of rotation (α1) between 5° and 90°; and - a second movement driving said axis in a second direction of rotation, opposite to the first angle of rotation, with an angle of rotation (α2) between -5° and -90°. - a first movement driving said axis in a first direction of rotation with an angle of rotation (α1) between 5° and 90°; and - a second movement driving said axis in a second direction of rotation, opposite to the first angle of rotation, with an angle of rotation (α2) between -5° and -90°.
A consumer care product comprising a dispensing package , the dispensing package comprising: a product chamber comprising a movable elevator platform operatively associated with a spindle of a screw assembly ; and an outer jacket surrounding the product chamber , wherein the product chamber or the outer jacket comprises a ratchet non-removably associated with the outer jacket or the product chamber and the ratchet comprises a plurality of ratchet teeth , each ratchet tooth having a lead angle of 15 degrees to 25 degrees and the product chamber further comprises an antiperspirant or deodorant; characterized in that : the ratchet comprises 12 to 20 ratchet teeth . a product chamber comprising a movable elevator platform operatively associated with a spindle of a screw assembly ; and an outer jacket surrounding the product chamber , wherein the product chamber or the outer jacket comprises a ratchet non-removably associated with the outer jacket or the product chamber and the ratchet comprises a plurality of ratchet teeth , each ratchet tooth having a lead angle of 15 degrees to 25 degrees and the product chamber further comprises an antiperspirant or deodorant; characterized in that : the ratchet comprises 12 to 20 ratchet teeth .
A safety belt retractor comprising a frame and a belt reel , wherein the belt reel is rotatably supported in the frame and is configured for winding a webbing , wherein the frame comprises: - a back plate having a first side and a second side opposite to each other and having a first opening ; - first support legs extending from the first side of the back plate; - a first support plate having a second opening and connected to free end regions of the first support legs, wherein the first opening and the second opening are configured to receive the belt reel ; and - a second support plate ; characterized in that the frame further comprises: - second support legs extending from the second side of the back plate; wherein the second support plate is connected to free end regions of the second support legs. - a back plate having a first side and a second side opposite to each other and having a first opening ; - first support legs extending from the first side of the back plate; - a first support plate having a second opening and connected to free end regions of the first support legs, wherein the first opening and the second opening are configured to receive the belt reel ; and - a second support plate ; - second support legs extending from the second side of the back plate;
A method of operating a first display device , the method comprising: displaying (S610) a first image of a first content acquired by the first display device , wherein the first image includes a target object; receiving an input of selecting (S620) the target object from among one or more objects included in the first image ; acquiring (S630) information on a first coordinate of the target object, the information on the first coordinate including coordinate values (x, y, z, w, h) of a region of the first image in which the target object is located; transmitting the information on the first coordinate to a second display device ; acquiring a second image of the first content, wherein the second image is acquired temporally later than the first image , and transmitting the second image to the second display device ; receiving (S640), from the second display device , information on a second coordinate of the target object included in the second image , the information on the second coordinate including coordinate values (X, Y, Z, W, H) of a region of the second image in which the target object is located; based on the information on the second coordinate, acquiring (S650), from the second image , an image tracking the target object, wherein the image tracking the target object corresponds to an image which includes an image of the region of the second image corresponding to the second coordinate; and displaying (S660), on the first display device , the acquired image tracking the target object. displaying (S610) a first image of a first content acquired by the first display device , wherein the first image includes a target object; receiving an input of selecting (S620) the target object from among one or more objects included in the first image ; acquiring (S630) information on a first coordinate of the target object, the information on the first coordinate including coordinate values (x, y, z, w, h) of a region of the first image in which the target object is located; transmitting the information on the first coordinate to a second display device ; acquiring a second image of the first content, wherein the second image is acquired temporally later than the first image , and transmitting the second image to the second display device ; receiving (S640), from the second display device , information on a second coordinate of the target object included in the second image , the information on the second coordinate including coordinate values (X, Y, Z, W, H) of a region of the second image in which the target object is located; based on the information on the second coordinate, acquiring (S650), from the second image , an image tracking the target object, wherein the image tracking the target object corresponds to an image which includes an image of the region of the second image corresponding to the second coordinate; and displaying (S660), on the first display device , the acquired image tracking the target object.
A method for producing soluble methane monooxygenase (sMMO) or particulate methane monooxygenase (pMMO) for the treatment of gaseous emissions comprising methane, said method comprising the steps of • providing a gaseous emission comprising methane; • providing methanotrophic microorganisms; • culturing methanotrophic microorganisms in a growth medium comprising copper; • exposing the methanotrophic microorganisms to the gaseous emissions, wherein said methanotrophic microorganisms thereby produce sMMO or pMMO, wherein said methanotrophic microorganisms comprise a combination of methane-utilizing and non-methane-utilizing microorganisms collectively associated with the growth of methane-utilizing microorganisms, wherein the methanotrophic microorganisms use at least a portion of the methane as a source of carbon or energy, wherein the methanotrophic microorganisms comprise a combination of Methylococcus capsulatus, Alcaligenes acidovorans, Bacillus firmus, and Bacillus brevis, and wherein the concentration of copper in a methanotrophic growth medium is maintained at a concentration such that production of soluble methane monooxygenase (sMMO) or particulate methane monooxygenase (pMMO) is effected in most or all methanotrophic cells. • providing a gaseous emission comprising methane; • providing methanotrophic microorganisms; • culturing methanotrophic microorganisms in a growth medium comprising copper; • exposing the methanotrophic microorganisms to the gaseous emissions, wherein said methanotrophic microorganisms thereby produce sMMO or pMMO,
A calibration system for a delta-sigma analog-to-digital converter, ADC , wherein the ADC comprises, a loop filter having an input for receiving an input signal, a flash ADC that is configured to receive an analog input from the loop filter and convert the analog input to digital multi-bit data and further configured to feed back the digital multi-bit data to the loop filter, and a reference shuffling circuit that shuffles reference values of comparators of the flash ADC; the system comprising: a power meter configured to estimate the output power of the flash ADC based on the digital multi-bit data; and a calibration circuit configured to calibrate the comparators of the flash ADC by adjusting the offsets of the comparators of the flash ADC, based on an output of the power meter, to minimise the output power of the flash ADC; wherein the system is configured to disconnect the input for receiving the input signal from the loop filter during calibration; and the reference shuffling circuit is configured to shuffle the reference values such that one or more of the comparators experience transitions over time. a power meter configured to estimate the output power of the flash ADC based on the digital multi-bit data; and a calibration circuit configured to calibrate the comparators of the flash ADC by adjusting the offsets of the comparators of the flash ADC, based on an output of the power meter, to minimise the output power of the flash ADC; wherein the system is configured to disconnect the input for receiving the input signal from the loop filter during calibration; and the reference shuffling circuit is configured to shuffle the reference values such that one or more of the comparators experience transitions over time.