mhurhangee/patent-ind-claim-en huggingface dataset:
Method for magnetic resonance imaging in an examination region of an examination object by means of a magnetic resonance device which comprises a shim unit , wherein the shim unit comprises a first shim channel volume having at least one first shim channel and a second shim channel volume having at least one second shim channel , comprising the following method steps: - dividing the examination region into a plurality of sections, - ascertaining a plurality of first shim parameter sets for the at least one first shim channel , wherein one first shim parameter set respectively of the plurality of first shim parameter sets is ascertained for each of the plurality of sections, wherein, before ascertaining the plurality of first shim parameter sets, a first B0 field map is acquired, wherein the plurality of first shim parameter sets is ascertained using the first B0 field map, - ascertaining a second shim parameter set for the at least one second shim channel by taking into account the plurality of first ascertained shim parameter sets, - acquiring magnetic resonance image data of the examination region of the examination object , wherein, before acquiring the magnetic resonance image data, the at least one second shim channel is adjusted using the second shim parameter set and the at least one first shim channel is adjusted for acquiring the magnetic resonance image data from a specific section of the plurality of sections using a first shim parameter set ascertained for the specific section, characterised in that a second B0 field map is calculated using the first B0 field map and the plurality of first shim parameter sets, and the plurality of first shim parameter sets is taken into account when ascertaining the second shim parameter set such that the second shim parameter set is ascertained using the second B0 field map. - dividing the examination region into a plurality of sections, - ascertaining a plurality of first shim parameter sets for the at least one first shim channel , wherein one first shim parameter set respectively of the plurality of first shim parameter sets is ascertained for each of the plurality of sections, wherein, before ascertaining the plurality of first shim parameter sets, a first B0 field map is acquired, wherein the plurality of first shim parameter sets is ascertained using the first B0 field map, - ascertaining a second shim parameter set for the at least one second shim channel by taking into account the plurality of first ascertained shim parameter sets, - acquiring magnetic resonance image data of the examination region of the examination object , wherein, before acquiring the magnetic resonance image data, the at least one second shim channel is adjusted using the second shim parameter set and the at least one first shim channel is adjusted for acquiring the magnetic resonance image data from a specific section of the plurality of sections using a first shim parameter set ascertained for the specific section,
A ball screw drive , comprising: • a threaded spindle having a first, free end and a second end which is connectable to a drive, and • a spindle nut that at least partially surrounds the threaded spindle coaxially, and • a plurality of balls recirculating in a space between the threaded spindle and the spindle nut ; and • an extension sleeve that coaxially connects to the spindle nut , is fixedly connected thereto and is movable together therewith relative to the threaded spindle , and • a substantially circular bearing ring attached at the first end on the outer circumference of the threaded spindle , which bearing ring serves as a shaft bearing between the threaded spindle and the extension sleeve , characterized in that the bearing ring has an integrated spring/damping element which is formed by a combination of at least one notch on the inner circumference of the bearing ring and a gap and which provides a sound-dampening effect. • a threaded spindle having a first, free end and a second end which is connectable to a drive, and • a spindle nut that at least partially surrounds the threaded spindle coaxially, and • a plurality of balls recirculating in a space between the threaded spindle and the spindle nut ; and • an extension sleeve that coaxially connects to the spindle nut , is fixedly connected thereto and is movable together therewith relative to the threaded spindle , and • a substantially circular bearing ring attached at the first end on the outer circumference of the threaded spindle , which bearing ring serves as a shaft bearing between the threaded spindle and the extension sleeve ,
A system comprising: a medical device configured to: sense, by a channel of the medical device, a non-stimulating sync signal; sense, by the channel of the medical device used to sense the non-stimulating sync signal, physiological parameter measurements to generate a physiological signal; and in response to sensing the sync signal, generate a sync-coupled physiological signal. sense, by a channel of the medical device, a non-stimulating sync signal; sense, by the channel of the medical device used to sense the non-stimulating sync signal, physiological parameter measurements to generate a physiological signal; and in response to sensing the sync signal, generate a sync-coupled physiological signal.
A device for supporting and attaching a construction accessory , such as a gutter hook, to a roof cover, the support device comprising a part forming a hook holder and a U-shaped clamp whereof the branches form, with the hook holder-forming part , a single-piece assembly that can be slipped on an edge (B) of the roof cover and fastened to this edge, characterized in that the branches of the U of the clamp are rectilinear and parallel in cross-section, with the same length and able to resiliently and directly grip the edge (B) of the roof cover under the action of the clamping force exerted on the branches by the bend connecting these branches to one another after forcible engagement of this edge between the branches of the clamp whereof the inner faces come directly into contact respectively on the corresponding upper and lower faces of the edge (B) of the cover.
A resin composition for a printed circuit board, comprising a cyanate ester compound (A) and an epoxy resin (B), characterized in that the cyanate ester compound (A) has at least one structure selected from the group consisting of structures represented by the following formula , the following formula and the following formula : wherein k represents an integer of 1 or more, and I represents an integer of 0 or more, the cyanate ester compound optionally being a mixture of compounds different in k and I, and arrangement of repeating units being arbitrary, wherein m and n each represent an integer of 0 or more, at least one of m and n being 1 or more, the cyanate ester compound optionally being a mixture of compounds different in m and n, and arrangement of repeating units being arbitrary, and wherein m represents an integer of 0 or more, and the cyanate ester compound being a mixture of compounds different in m.
A control device for a luminaire , that comprises: - a communications interface , which is configured, in order to receive control data via a data connection , - a control interface for coupling with an emergency battery for at least one lighting means of the luminaire , and - at least one switching circuit , which is coupled with the communications interface and the control interface and which is configured, in order to control a discharge of the emergency battery by means of the control interface depending on the control data , characterized in that the communications interface is configured, in order to receive the control data by demodulation of a supply voltage of the luminaire . - a communications interface , which is configured, in order to receive control data via a data connection , - a control interface for coupling with an emergency battery for at least one lighting means of the luminaire , and - at least one switching circuit , which is coupled with the communications interface and the control interface and which is configured, in order to control a discharge of the emergency battery by means of the control interface depending on the control data ,
Tempering clamp for holding a sample container and for tempering a sample contained within the sample container and having first and second tempering elements, characterized in that the tempering clamp comprises first and second clamping jaws movably connected by a spring element, wherein the first tempering element is associated to the first clamping jaw and the second tempering element is associated to the second clamping jaw .
A network device, comprising: a processing module , configured to determine a same processing result for random access procedures initiated by N terminal devices in M terminal device sets, wherein M and N are positive integers; and a sending module , configured to send a same random access control message to the N terminal devices that initiate the random access procedures, wherein the random access control message includes a random access reject message and wherein the random access control message is used to indicate the same processing result determined by the processing module , the message comprises terminal set identification information, and the terminal set identification information is used to identify the N terminal devices, wherein the sending module is specifically configured to: when M ≥ 2, send the random access control message in a same resource location that is in a downlink control channel and that is corresponding to the M terminal device sets. a processing module , configured to determine a same processing result for random access procedures initiated by N terminal devices in M terminal device sets, wherein M and N are positive integers; and a sending module , configured to send a same random access control message to the N terminal devices that initiate the random access procedures, wherein the random access control message includes a random access reject message and wherein the random access control message is used to indicate the same processing result determined by the processing module , the message comprises terminal set identification information, and the terminal set identification information is used to identify the N terminal devices, wherein the sending module is specifically configured to: when M ≥ 2, send the random access control message in a same resource location that is in a downlink control channel and that is corresponding to the M terminal device sets.
A method of measuring power delivered by a cable, the method comprising: receiving data related to a residual magnetic field produced by the cable; determining a proportionality factor relating the received data to the power delivered by comparing the residual magnetic field data to independently measured reference data related to the power delivered by the cable; and based on the proportionality factor, determining the power delivered by the cable; wherein the cable comprises two or three conductors, and characterized in that the physical arrangement of the conductors is unknown; and wherein the independently measured reference data is aggregate data, being the sum of data related to power consumption through the cable and power consumption unrelated to power consumption through the cable. receiving data related to a residual magnetic field produced by the cable; determining a proportionality factor relating the received data to the power delivered by comparing the residual magnetic field data to independently measured reference data related to the power delivered by the cable; and based on the proportionality factor, determining the power delivered by the cable; wherein the cable comprises two or three conductors, and characterized in that the physical arrangement of the conductors is unknown; and wherein the independently measured reference data is aggregate data, being the sum of data related to power consumption through the cable and power consumption unrelated to power consumption through the cable.
A method for responding to a voice signal, applied to a plurality of electronic devices, comprising: receiving (S11), by the plurality of electronic devices, a voice signal; determining (S12), for each of the electronic devices, a target sound source point associated with the voice signal; determining (S13), for each of the electronic devices, a direct sound energy associated with the voice signal according to the target sound source point; and selecting (S14), from the plurality of electronic devices, at least one electronic device with a direct sound energy satisfying a predetermined condition, and responding, by the at least one electronic device, to the voice signal; wherein determining (S13) the direct sound energy associated with the voice signal according to the target sound source point comprises: determining, based on the target sound source point, a direct sound coefficient and a reverberation coefficient; establishing a direct sound model based on the direct sound coefficient, and establishing a reverberation model based on the reverberation coefficient; establishing a spatial covariance matrix based on the direct sound model and the reverberation model; and determining the direct sound energy based on the spatial covariance matrix. receiving (S11), by the plurality of electronic devices, a voice signal; determining (S12), for each of the electronic devices, a target sound source point associated with the voice signal; determining (S13), for each of the electronic devices, a direct sound energy associated with the voice signal according to the target sound source point; and selecting (S14), from the plurality of electronic devices, at least one electronic device with a direct sound energy satisfying a predetermined condition, and responding, by the at least one electronic device, to the voice signal; wherein determining (S13) the direct sound energy associated with the voice signal according to the target sound source point comprises: determining, based on the target sound source point, a direct sound coefficient and a reverberation coefficient; establishing a direct sound model based on the direct sound coefficient, and establishing a reverberation model based on the reverberation coefficient; establishing a spatial covariance matrix based on the direct sound model and the reverberation model; and determining the direct sound energy based on the spatial covariance matrix. determining, based on the target sound source point, a direct sound coefficient and a reverberation coefficient; establishing a direct sound model based on the direct sound coefficient, and establishing a reverberation model based on the reverberation coefficient; establishing a spatial covariance matrix based on the direct sound model and the reverberation model; and determining the direct sound energy based on the spatial covariance matrix.
A computer-implemented method for using hover information to pause transient user interface features, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: detecting the presence of an object at or near the display surface of a computer system ; identifying the location of the object relative to the display surface ; determining, based on the identified location of the object , where the object will contact the display surface ; identifying one or more transient user interface elements that are being displayed where the object is determined to contact the display surface , wherein the one or more transient user interface elements are user interface elements which are temporary, or which have a function, action or result changing over time or are only to be displayed for a short amount of time; and pausing the identified transient user interface elements to ensure that the user interface elements remain static. detecting the presence of an object at or near the display surface of a computer system ; identifying the location of the object relative to the display surface ; determining, based on the identified location of the object , where the object will contact the display surface ; identifying one or more transient user interface elements that are being displayed where the object is determined to contact the display surface , wherein the one or more transient user interface elements are user interface elements which are temporary, or which have a function, action or result changing over time or are only to be displayed for a short amount of time; and pausing the identified transient user interface elements to ensure that the user interface elements remain static.
An apparatus for densifying and compacting granular materials, the apparatus comprising a drive end shaft, characterized in that the drive end shaft is a closed end drive shaft having a bottom surface, the bottom surface having a first diameter, in that the apparatus further comprises one or more diametric expansion elements attached to the bottom surface of the drive shaft and comprising one or more of chains, cables and wire rope, and in that the one or more diametric expansion elements are expandable in response to the drive shaft being driven into a granular material in order to, in their expanded state, form a compaction surface for compacting the granular material, the compaction surface having a second diameter greater than the first diameter of the drive shaft. in that the apparatus further comprises one or more diametric expansion elements attached to the bottom surface of the drive shaft and comprising one or more of chains, cables and wire rope, and in that the one or more diametric expansion elements are expandable in response to the drive shaft being driven into a granular material in order to, in their expanded state, form a compaction surface for compacting the granular material, the compaction surface having a second diameter greater than the first diameter of the drive shaft.
An aerosol delivery device (100; 200) comprising: a housing defining a refillable reservoir (304; 404, 504; 704) for storing an aerosol precursor composition, wherein the housing is configured to allow a flow of air through at least a portion of the housing, the air being combinable with components of the aerosol precursor composition to form an aerosol; and an adapter (410; 510; 706) coupled to the housing and removably, sealably connectable with a container (300; 700) for refilling the reservoir (304; 404, 504; 704) with aerosol precursor composition, the adapter (410; 510; 706) configured to engage a valve of the container (300; 700) during refilling of the reservoir (304; 404, 504; 704), the adapter (410; 510; 706) including a body defining separate and distinct filling and airflow ports , the filling port being for transfer of aerosol precursor composition from the container (300; 700) into the reservoir (304; 404, 504; 704) during engagement of the adapter (410; 510; 706) and valve in which the airflow port is closed by the valve to prevent the aerosol precursor composition from passing through the airflow port , the airflow port being for the flow of air through at least the portion of the housing when the adapter (410; 510; 706) and valve are disengaged. a housing defining a refillable reservoir (304; 404, 504; 704) for storing an aerosol precursor composition, wherein the housing is configured to allow a flow of air through at least a portion of the housing, the air being combinable with components of the aerosol precursor composition to form an aerosol; and an adapter (410; 510; 706) coupled to the housing and removably, sealably connectable with a container (300; 700) for refilling the reservoir (304; 404, 504; 704) with aerosol precursor composition, the adapter (410; 510; 706) configured to engage a valve of the container (300; 700) during refilling of the reservoir (304; 404, 504; 704), the adapter (410; 510; 706) including a body defining separate and distinct filling and airflow ports , the filling port being for transfer of aerosol precursor composition from the container (300; 700) into the reservoir (304; 404, 504; 704) during engagement of the adapter (410; 510; 706) and valve in which the airflow port is closed by the valve to prevent the aerosol precursor composition from passing through the airflow port , the airflow port being for the flow of air through at least the portion of the housing when the adapter (410; 510; 706) and valve are disengaged.
A method comprising: sampling a data signal using a data sampler operating in a data signal processing path having a decision threshold associated with a decision feedback equalization, DFE, correction factor; measuring an eye opening of the data signal by adjusting a decision threshold of a spare sampler operating outside of the data signal processing path to determine a center-of-eye value for the decision threshold of the spare sampler; initializing the decision threshold of the spare sampler based on the center-of-eye value and the DFE correction factor; generating phase-error signals from the spare sampler and phase error signals from the data sampler responsive to a detection of a predetermined data pattern; and updating the decision threshold of the data sampler based on an accumulation of comparisons of the phase-error signals from the spare sampler and corresponding phase-error signals from the data sampler generated in the same unit sampling instant. sampling a data signal using a data sampler operating in a data signal processing path having a decision threshold associated with a decision feedback equalization, DFE, correction factor; measuring an eye opening of the data signal by adjusting a decision threshold of a spare sampler operating outside of the data signal processing path to determine a center-of-eye value for the decision threshold of the spare sampler; initializing the decision threshold of the spare sampler based on the center-of-eye value and the DFE correction factor; generating phase-error signals from the spare sampler and phase error signals from the data sampler responsive to a detection of a predetermined data pattern; and updating the decision threshold of the data sampler based on an accumulation of comparisons of the phase-error signals from the spare sampler and corresponding phase-error signals from the data sampler generated in the same unit sampling instant.