mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an x-ray scanner gantry comprising a housing , a gantry gear formed as part of or connected to the housing, a rotor , a generator mounted on the rotor, and a first generator gear and a second generator gear connected to or configured to engage with one or more axles of the generator, wherein the second generator gear is engaged with the gantry gear; an intermediate gear ; a first actuator connected to the intermediate gear; a motor gear coupled to and configured to rotate the intermediate gear; a motor configured to rotate the motor gear; a second actuator configured to actuate the motor gear to engage the motor with the rotor; and a control module configured to operate in a first mode and a second mode, wherein the control module is configured to while in the first mode, engage the intermediate gear to the first generator gear via the first actuator to rotate, via the motor gear, the intermediate gear and as a result the first generator gear to generate power, and while in the second mode, engage the motor to the rotor via the second actuator to rotate, via the motor gear, the rotor and as a result the second generator gear to generate power. an x-ray scanner gantry comprising a housing , a gantry gear formed as part of or connected to the housing, a rotor , a generator mounted on the rotor, and a first generator gear and a second generator gear connected to or configured to engage with one or more axles of the generator, wherein the second generator gear is engaged with the gantry gear; a housing , a gantry gear formed as part of or connected to the housing, a rotor , a generator mounted on the rotor, and a first generator gear and a second generator gear connected to or configured to engage with one or more axles of the generator, wherein the second generator gear is engaged with the gantry gear; an intermediate gear ; a first actuator connected to the intermediate gear; a motor gear coupled to and configured to rotate the intermediate gear; a motor configured to rotate the motor gear; a second actuator configured to actuate the motor gear to engage the motor with the rotor; and a control module configured to operate in a first mode and a second mode, wherein the control module is configured to while in the first mode, engage the intermediate gear to the first generator gear via the first actuator to rotate, via the motor gear, the intermediate gear and as a result the first generator gear to generate power, and while in the second mode, engage the motor to the rotor via the second actuator to rotate, via the motor gear, the rotor and as a result the second generator gear to generate power. while in the first mode, engage the intermediate gear to the first generator gear via the first actuator to rotate, via the motor gear, the intermediate gear and as a result the first generator gear to generate power, and while in the second mode, engage the motor to the rotor via the second actuator to rotate, via the motor gear, the rotor and as a result the second generator gear to generate power.
A method for optically measuring state and/or status information or changes therein about a warm-blooded subject, the method comprising: a. illuminating a portion of the subject's skin or tissue by a VCSEL (vertical cavity surface emitting laser) or a diode laser to scatter partially or entirely coherent light off of the subject's moving red blood cells (RBCs) to induce a scattered-light time-dependent optical response; b. receiving the scattered light by a photodetector(s) to generate an electrical signal descriptive of the induced scattered-light time-dependent optical response; c. processing the scattered-light-optical-response-descriptive electrical signal or a derived-signal thereof using temporal-speckle analysis to compute therefrom one or more blood-shear-rate-descriptive (BSRD) signal(s), each BSRD signal characterized by a respective frequency-selection profile, i.e. a selected frequency interval of fluctuations of speckle patterns; d. electronically analyzing features of the BSRD signal(s) of the BSRD signal group; and e. in accordance with the results of the electronically analyzing of the frequency-interval-specific shear-rate-descriptive signal(s), computing the state and/or status information or changes therein from the results of the analyzing, wherein a frequency-selection profile of the BSRD(s) signal is computed dynamically by adaptively maximizing a prominence of a predetermined non-pulsatile physiological signal, i.e. non-pulse-wave, within the BSRD(s). a. illuminating a portion of the subject's skin or tissue by a VCSEL (vertical cavity surface emitting laser) or a diode laser to scatter partially or entirely coherent light off of the subject's moving red blood cells (RBCs) to induce a scattered-light time-dependent optical response; b. receiving the scattered light by a photodetector(s) to generate an electrical signal descriptive of the induced scattered-light time-dependent optical response; c. processing the scattered-light-optical-response-descriptive electrical signal or a derived-signal thereof using temporal-speckle analysis to compute therefrom one or more blood-shear-rate-descriptive (BSRD) signal(s), each BSRD signal characterized by a respective frequency-selection profile, i.e. a selected frequency interval of fluctuations of speckle patterns; d. electronically analyzing features of the BSRD signal(s) of the BSRD signal group; and e. in accordance with the results of the electronically analyzing of the frequency-interval-specific shear-rate-descriptive signal(s), computing the state and/or status information or changes therein from the results of the analyzing, wherein a frequency-selection profile of the BSRD(s) signal is computed dynamically by adaptively maximizing a prominence of a predetermined non-pulsatile physiological signal, i.e. non-pulse-wave, within the BSRD(s).
A motor vehicle lighting device comprising a housing , a cover plate covering a light outlet opening of the housing , a ventilation port , and an air filter which is arranged at the ventilation port upstream of the ventilation port in the flow path of ventilation air flowing into the housing via the ventilation port , wherein the air filter is connected to the ventilation port in a non-destructively detachable and thus replaceable manner, and wherein the ventilation port is implemented as a connection piece which has an air inlet side facing the air filter and an air outlet side which opens into the interior of the lighting device via the ventilation opening , and wherein a housing and a filter outlet of the air filter as well as the connection piece of the remaining lighting device are made of plastic, characterized in that an inner side of the connection piece has a chamfered surface which forms the transition of the connection piece to the remaining housing , and in that the outer side of the filter outlet has projections which are shaped to match the chamfered surface and project beyond the inner width of the opening of the connection piece , and in that the filter outlet has elastically yielding tongue-like wall sections which yield elastically when the filter outlet is inserted into the connection piece .
Method for sterilizing a thermoplastic container of the type of containers obtained from a hot preform converted by blow moulding by means of a pressurized fluid, the method comprising at least one irradiating step consisting in irradiating the container from the outside by means of an electron beam (F) with a view to sterilizing, through a wall of the container, the inside of said container , characterized in that the electron beam is a pulsed electron beam that is formed from a succession of pulses each having an emission duration (d) that is shorter than 100 ns and an amplitude (i) that is higher than 1 kA, and in that the method comprises a step consisting in introducing axially a reflector into the inside of the container to be sterilized.
A fastener system for joining a first item and a second item , the fastener system comprising: a female fastener assembly that includes a housing having an upper surface , a lower surface and a channel defined therein, wherein the female fastener assembly further comprises a switch member that is movable within the channel in the housing between a removing position and a fastening position, wherein the switch member includes a receiver portion having a post opening defined therein and a switch portion , wherein the housing includes a lower opening defined therein that extends through the lower surface thereof and is in communication with the channel, wherein the post opening includes a fastening portion and a removing portion , wherein the removing portion is aligned with the lower opening when the switch member is in the removing position and the fastening portion is aligned with the lower opening when the switch member is in the fastening position, and a male fastener assembly that includes a post having a slot defined therein, wherein at least a portion of the post is received through the lower opening in the housing and the post opening such that the slot is aligned with the channel, and wherein the slot receives a portion of the receiver portion when the switch member is in the fastening position, wherein the switch portion is spring biased upwardly.
Angle-resolving radar sensor for motor vehicles, having an antenna arrangement containing multiple antennas that are configured to receive and are arranged in different positions (yi) in a direction (y) in which the radar sensor is angle-resolving, and having a control and evaluation device that is designed for a mode of operation in which at least one antenna of the radar sensor that is configured to transmit transmits a signal that is received by multiple instances of the antennas of the radar sensor that are configured to receive, the control and evaluation device being designed to estimate an angle (Θ) of a radar target in said mode of operation, characterized in that the control and evaluation device is designed so as, in said mode of operation, for a single estimation of an angle (Θ) of a radar target, to determine respective individual distances (di) of the radar target for respective evaluation channels (i) that correspond to different configurations of transmitting and receiving antennas and to use the individual distances (di) to estimate the angle (Θ) of the radar target, a difference between the individual distances (di) determined in at least two single evaluation channels (i) being used to resolve ambiguities in the estimation of the angle (Θ) of the radar target.
Method for separation of at least one catalyst or adsorbent from a homogeneous mixture in size and/or a in shape of catalysts and/or adsorbents, said catalyst and/or adsorbent being in the form of cylindrical extrudates, balls, trilobes, or multilobes ,with said catalysts or adsorbents having been used in a method for treatment of gas or hydrocarbon feedstock, method in which the catalyst grains or adsorbents are separated according to a sorting threshold corresponding to a content of the constituent element that is sought and defined by the user, method in which: - The catalyst to be separated contains as a constituent element a non-metal element selected from the group that is formed by P, B, Si, Li, Na, K, Ca, Cl and/or that contains as a constituent element Cr, Cu, Al, Ti, Zn, - The catalyst grains of said mixture run past an LIBS detection system that detects the wavelength that is characteristic of said constituent element, - The analyzing device associated with LIBS processes the signal sent by the detection system by comparing it to a set-point value that indicates the sorting threshold, - The analyzing device sends a signal to order the evacuation of grains according to the content thereof in said element, and at least 2 batches are obtained: at least one batch of catalysts containing said element at a level above the sorting threshold set by the operator and at least one batch of catalysts containing said element at a level below the sorting threshold set by the operator, - And at least one of the batches of catalysts that are lightly loaded with said element is recycled into the gas or hydrocarbon batch treatment method after possible regeneration. - The catalyst to be separated contains as a constituent element a non-metal element selected from the group that is formed by P, B, Si, Li, Na, K, Ca, Cl and/or that contains as a constituent element Cr, Cu, Al, Ti, Zn, - The catalyst grains of said mixture run past an LIBS detection system that detects the wavelength that is characteristic of said constituent element, - The analyzing device associated with LIBS processes the signal sent by the detection system by comparing it to a set-point value that indicates the sorting threshold, - The analyzing device sends a signal to order the evacuation of grains according to the content thereof in said element, and at least 2 batches are obtained: at least one batch of catalysts containing said element at a level above the sorting threshold set by the operator and at least one batch of catalysts containing said element at a level below the sorting threshold set by the operator, - And at least one of the batches of catalysts that are lightly loaded with said element is recycled into the gas or hydrocarbon batch treatment method after possible regeneration.
A self-driving cleaner comprising: a main body configured to travel through a cleaning area and to suck foreign substances from a floor in the cleaning area; a drive unit for moving the main body in the cleaning area; a pattern irradiation unit , disposed on a front surface of the main body , for irradiating light in a predetermined pattern toward a lower front side of the main body ; a camera , disposed on a front surface of the main body , for photographing the front of the main body ; and a controller for detecting a light pattern formed by the pattern irradiation unit using an image photographed by the camera , determining whether an obstacle exists in front of the main body on the basis of brightness of the detected light pattern, and controlling the drive unit to pass or avoid the obstacle on the basis of a result of the determination; characterized in that a the controller is configured to control the drive unit to reduce a moving speed of the main body when the brightness of the detected light pattern is less than or equal to a preset reference brightness. a main body configured to travel through a cleaning area and to suck foreign substances from a floor in the cleaning area; a drive unit for moving the main body in the cleaning area; a pattern irradiation unit , disposed on a front surface of the main body , for irradiating light in a predetermined pattern toward a lower front side of the main body ; a camera , disposed on a front surface of the main body , for photographing the front of the main body ; and a controller for detecting a light pattern formed by the pattern irradiation unit using an image photographed by the camera , determining whether an obstacle exists in front of the main body on the basis of brightness of the detected light pattern, and controlling the drive unit to pass or avoid the obstacle on the basis of a result of the determination; characterized in that a the controller is configured to control the drive unit to reduce a moving speed of the main body when the brightness of the detected light pattern is less than or equal to a preset reference brightness.
A Fabry-Perot etalon including first and second partial mirrors spaced from one another by a spacer element in the shape of a cube, which spacer element is provided with sides which provide support, respectively, for the first and second mirrors; an optical cavity extending between the first and second partial mirrors and having an optical axis; a plurality of support elements for supporting the spacer element and being located symmetrically about the optical axis of the cavity ; the vertices of the spacer element being truncated; wherein said cavity is provided by a bore within the spacer element; wherein a compressive force directed towards the centre of the cavity is applied at the supports ; the etalon including four support elements positioned tetrahedrally about the spacer element and centred on vertex planes. wherein said cavity is provided by a bore within the spacer element; wherein a compressive force directed towards the centre of the cavity is applied at the supports ; the etalon including four support elements positioned tetrahedrally about the spacer element and centred on vertex planes.
A method for out-of-order loads in a memory consistency model using shared memory resources, the method implemented in a processor and comprising: defining a memory resource that can be accessed by a plurality of asynchronous cores; implementing an access mask operable to track which words of a cache line are accessed via a load, wherein the cache line includes the memory resource, wherein the load sets a mask bit within the access mask when accessing a word of the cache line, and wherein the mask bit blocks accesses from other loads from the plurality of asynchronous cores; and checking the access mask upon execution of subsequent accesses from the plurality of asynchronous cores to the cache line, characterized by when a subsequent access to the word of the cache line happens while the mask bit is set, signaling a load queue entry corresponding to the load to be miss-predicted/flushed or retried with its dependent instructions, wherein the subsequent access signals the load queue entry corresponding to the load by using a tracker register and a thread ID register. defining a memory resource that can be accessed by a plurality of asynchronous cores; implementing an access mask operable to track which words of a cache line are accessed via a load, wherein the cache line includes the memory resource, wherein the load sets a mask bit within the access mask when accessing a word of the cache line, and wherein the mask bit blocks accesses from other loads from the plurality of asynchronous cores; and checking the access mask upon execution of subsequent accesses from the plurality of asynchronous cores to the cache line, characterized by when a subsequent access to the word of the cache line happens while the mask bit is set, signaling a load queue entry corresponding to the load to be miss-predicted/flushed or retried with its dependent instructions, wherein the subsequent access signals the load queue entry corresponding to the load by using a tracker register and a thread ID register.
A non-burning type flavor inhaler comprising: an atomizing unit having an aerosol source and a resistance heating element configured to atomize the aerosol source by resistance electric heating; a memory configured to store specific parameter; and a controller configured to control a power amount supplied to the resistance heating element , wherein a power amount supplied to the resistance heating element during one puff action is expressed by E, the specific parameter of the atomizing unit is expressed by a and b, an amount of the aerosol source consumed during one puff action is expressed by L, said a and b are predetermined for the atomizing unit and define the linear relationship between E and L, characterized in that the controller is configured to calculate the L based on the E which is obtained through the one puff action according to an equation of L = aE + b, or configured to control the E according to an equation of E = (L - b)/a if the L is predesignated. an atomizing unit having an aerosol source and a resistance heating element configured to atomize the aerosol source by resistance electric heating; a memory configured to store specific parameter; and a controller configured to control a power amount supplied to the resistance heating element , wherein a power amount supplied to the resistance heating element during one puff action is expressed by E, the specific parameter of the atomizing unit is expressed by a and b, an amount of the aerosol source consumed during one puff action is expressed by L, said a and b are predetermined for the atomizing unit and define the linear relationship between E and L, characterized in that the controller is configured to calculate the L based on the E which is obtained through the one puff action according to an equation of L = aE + b, or configured to control the E according to an equation of E = (L - b)/a if the L is predesignated.
An industrial plant comprising an alternating current power line connectable to a power source , at least a first ac/dc converter in communication with the power source through the alternating current power line, a first direct current power line downstream of the ac/dc converter , at least a first critical load powered by the first direct current power line , the first critical load comprising at least a first dc/ac converter and a first electric motor driven by the first dc/ac converter , the plant comprising an energy accumulation system to come into operation in the event of a fault in the alternating current power line , the accumulation system comprises a first flywheel , a first electric machine connected to the first flywheel , a first two-way ac/dc converter operatively interposed between the first electric machine and the first direct current power line , the first electric machine operating as a motor which sets the first flywheel in rotation when the alternating current power line is in service and operating as a generator, driven by the inertia of the first flywheel when the alternating current power line is out of service, the industrial plant being characterized in that it comprises a second ac/dc converter in communication with the power source through the alternating current power line , a second direct current power line downstream of the second ac/dc converter , at least one second critical load powered by the direct current power line , the energy accumulation system comprising a second electric machine connected to the first flywheel , a second two-way ac/dc converter operatively interposed between the second electric machine and the second direct current power line , the second electric machine operating as a generator, driven by the inertia of the first flywheel when the alternating current power line is out of service.
A grouting structure filled with soluble crystals, comprising: a drain pipe , a water-permeable section and a grouting section , wherein the water-permeable section is located at the lower part of a declination borehole, and the grouting section is situated at the upper part of the borehole; a water-stop component is arranged between the water-permeable section and the grouting section ; a permeable pipe is arranged in the water-permeable section ; the top of the permeable pipe is in contact with the water-stop component ; a cavity is formed in the permeable pipe ; the groundwater penetrates into the cavity through the permeable pipe ; a water inlet of the drain pipe is arranged in the water-permeable section , and the water inlet of the drain pipe is inserted into the permeable pipe after passing through the water-stop component ; a water outlet of the drain pipe is located at the lower part of the slope; an elevation of the water inlet of the drain pipe is higher than that of the water outlet of the drain pipe , and the lift of the drain pipe is less than the height of the water column corresponding to the atmospheric pressure; a space between the drain pipe and the wall of the borehole of the grouting section is grounted; wherein the permeable pipe is filled with solid soluble crystals ;