mhurhangee/patent-ind-claim-en huggingface dataset:
An anti-scatter device for an X-ray detector , the anti-scatter device comprising: an anti-scatter grid with a plurality of slats for absorbing X-rays; and a cover element arranged on a side of the anti-scatter grid ; wherein ends of the slats are coupled to the cover element ; wherein the cover element comprises an electroactive polymer material; and wherein a dimension of the cover element is changeable by applying a voltage to the electroactive polymer material, such that a distance between the ends of the slats is changeable by applying the voltage. an anti-scatter grid with a plurality of slats for absorbing X-rays; and a cover element arranged on a side of the anti-scatter grid ; wherein ends of the slats are coupled to the cover element ; wherein the cover element comprises an electroactive polymer material; and wherein a dimension of the cover element is changeable by applying a voltage to the electroactive polymer material, such that a distance between the ends of the slats is changeable by applying the voltage.
A clutch unit comprising: an input-side clutch part that controls transmission and blocking of a rotational torque to be input; and an output-side clutch part that transmits the rotational torque from the input-side clutch part to an output side and blocks the rotational torque reversely input from the output side, wherein the output-side clutch part includes a stationary member whose rotation is restrained, and an output member whose rotation is output, and a female gear member that meshes with the output member when the rotational torque is blocked and is unmeshed from the output member when the rotational torque is transmitted is attached with the stationary member , and a male gear member that meshes with the female gear member is attached with the output member, characterized in that the male gear member co-rotates with the output member without slipping in the rotation direction and, wherein the output-side clutch part includes engagement elements that control blocking of the rotational torque reversely input from the output member and transmission of the rotational torque input from a coupling member by engagement with and disengagement from wedge gaps between the stationary member and the output member . an input-side clutch part that controls transmission and blocking of a rotational torque to be input; and an output-side clutch part that transmits the rotational torque from the input-side clutch part to an output side and blocks the rotational torque reversely input from the output side, wherein the output-side clutch part includes a stationary member whose rotation is restrained, and an output member whose rotation is output, and a female gear member that meshes with the output member when the rotational torque is blocked and is unmeshed from the output member when the rotational torque is transmitted is attached with the stationary member , and a male gear member that meshes with the female gear member is attached with the output member, the male gear member co-rotates with the output member without slipping in the rotation direction and, wherein the output-side clutch part includes engagement elements that control blocking of the rotational torque reversely input from the output member and transmission of the rotational torque input from a coupling member by engagement with and disengagement from wedge gaps between the stationary member and the output member .
A method for handling a collision between a demodulation reference signal, DMRS, and a channel state information-reference signal, CSI-RS, in a wireless communication system, the method performed by a user equipment, UE, the method comprising: receiving the DMRS from a base station (S1210); receiving the CSI-RS from the base station (S1210); and based on a collision occurring in at least one resource element, RE, between the DMRS and the CSI-RS, puncturing a resource related to the DMRS or a resource related to the CSI-RS based on a time domain behavior of the CSI-RS (S1220), wherein, based on the time domain behavior of the CSI-RS being of an aperiodic CSI-RS, the resource related to the CSI-RS is punctured, and based on the time domain behavior of the CSI-RS being of a periodic or semi-persistent, SP, CSI-RS, the resource related to the DMRS is punctured, wherein the resource related to the CSI-RS is a CSI-RS RE that has a code division multiplex, CDM, relationship, in at least one of a time domain or a frequency domain, with the at least one RE, wherein CSI reported to the base station is configured with a reduced number of non-colliding antenna ports or based on a preset antenna port count. receiving the DMRS from a base station (S1210); receiving the CSI-RS from the base station (S1210); and based on a collision occurring in at least one resource element, RE, between the DMRS and the CSI-RS, puncturing a resource related to the DMRS or a resource related to the CSI-RS based on a time domain behavior of the CSI-RS (S1220), wherein, based on the time domain behavior of the CSI-RS being of an aperiodic CSI-RS, the resource related to the CSI-RS is punctured, and based on the time domain behavior of the CSI-RS being of a periodic or semi-persistent, SP, CSI-RS, the resource related to the DMRS is punctured, wherein the resource related to the CSI-RS is a CSI-RS RE that has a code division multiplex, CDM, relationship, in at least one of a time domain or a frequency domain, with the at least one RE,
A system comprising a terminal device with processing circuitry operable for facilitating a speech dialog with a user and directing a user, with the speech dialog, to perform a variety of tasks and to exchange spoken information about the tasks, the speech dialog including speech outputs from the processing circuitry to a user and speech inputs from the user to the processing circuitry during execution of a task, an RFID reader operable for retrieving data from an RFID tag (70, 1 10) with data stored thereon and interfacing with the processing circuitry characterized in that the terminal device includes an operable interface between the RFID reader and the processing circuitry , and in that the processing circuitry is responsive to a context within the speech dialog for initiating an automatic read operation with the RFID reader via the operable interface for automatically retrieving the data from the RFID tag , and in that the RFID reader and processing circuitry are configured for using the retrieved data, the processing circuitry processing the retrieved tag data and generating a speech command within the facilitated speech dialog that is reflective of the tag data for starting or varying the speech dialog in a selective manner and for directing activity by the user associated with a task.
Process for producing a laminate being built of at least two monolayers of polymeric tapes, wherein the polymeric tapes are drawn with a draw ratio of at least 1:5, the polymeric tapes having a tensile strength of at least 800 MPa measured in accordance with ASTM D638 and a tensile modulus of at least 16 GPa measured according to ASTM D790, the polymeric tapes comprising only one polymeric material, wherein the tapes are consolidated at a temperature just below the melting point of the tapes, said process comprises the steps of - forming a first monolayer of polymeric tapes by pre-tensioning the polymeric tapes and subsequently positioning the polymeric tapes under tension in a unidirectional, parallel manner, - forming at least a second monolayer over the first monolayer in the same manner the first monolayer is formed, thereby - stacking the at least two monolayers of polymeric tapes in such a way that the direction of the polymeric tapes is the same in every monolayer and that the polymeric tapes of each monolayer are offset to the tapes of the adjoining monolayer above or below that monolayer, - consolidating the thus stacked monolayers of polymeric tapes without any additional resin material to obtain a laminate. the polymeric tapes having a tensile strength of at least 800 MPa measured in accordance with ASTM D638 and a tensile modulus of at least 16 GPa measured according to ASTM D790, the polymeric tapes comprising only one polymeric material, wherein the tapes are consolidated at a temperature just below the melting point of the tapes, said process comprises the steps of - forming a first monolayer of polymeric tapes by pre-tensioning the polymeric tapes and subsequently positioning the polymeric tapes under tension in a unidirectional, parallel manner, - forming at least a second monolayer over the first monolayer in the same manner the first monolayer is formed, thereby - stacking the at least two monolayers of polymeric tapes in such a way that the direction of the polymeric tapes is the same in every monolayer and that the polymeric tapes of each monolayer are offset to the tapes of the adjoining monolayer above or below that monolayer, - consolidating the thus stacked monolayers of polymeric tapes without any additional resin material to obtain a laminate. - forming a first monolayer of polymeric tapes by pre-tensioning the polymeric tapes and subsequently positioning the polymeric tapes under tension in a unidirectional, parallel manner, - forming at least a second monolayer over the first monolayer in the same manner the first monolayer is formed, thereby - stacking the at least two monolayers of polymeric tapes in such a way that the direction of the polymeric tapes is the same in every monolayer and that the polymeric tapes of each monolayer are offset to the tapes of the adjoining monolayer above or below that monolayer, - consolidating the thus stacked monolayers of polymeric tapes without any additional resin material to obtain a laminate.
A trigger structure for triggering an installation indication of a fluid filter, comprising: a central structure ; one or more arches ; and a filter capture ring ; wherein said filter capture ring is circumferentially oriented about said central structure ; and wherein said one or more arches extend radially between said central structure and said filter capture ring ; wherein the trigger structure is a flexible structure, which undergoes an elastic deformation, the trigger structure being deformable from a first, stable shape past a tripping point to a second, unstable shape, under an applied axial compression, wherein a sound and/or vibration is released from the trigger structure on deformation from the first, stable shape to the second, unstable shape. a central structure ; one or more arches ; and a filter capture ring ; wherein said filter capture ring is circumferentially oriented about said central structure ; and wherein said one or more arches extend radially between said central structure and said filter capture ring ; wherein the trigger structure is a flexible structure, which undergoes an elastic deformation, the trigger structure being deformable from a first, stable shape past a tripping point to a second, unstable shape, under an applied axial compression, wherein a sound and/or vibration is released from the trigger structure on deformation from the first, stable shape to the second, unstable shape. wherein said filter capture ring is circumferentially oriented about said central structure ; and wherein said one or more arches extend radially between said central structure and said filter capture ring ; wherein the trigger structure is a flexible structure, which undergoes an elastic deformation, the trigger structure being deformable from a first, stable shape past a tripping point to a second, unstable shape, under an applied axial compression, wherein a sound and/or vibration is released from the trigger structure on deformation from the first, stable shape to the second, unstable shape.
A system comprising: a micro server comprising: a plurality of processor modules ; and a network controller comprising a single physical port , a physical apparatus and a virtual apparatus which are mapped onto the plurality of processor modules ; and a host (600") comprising: a hypervisor (610") configured to, in response to the virtual apparatus being initialized, receive a MAC address from a first external apparatus through the physical apparatus and allocate the MAC address to the virtual apparatus corresponding to one of the plurality of processor modules , wherein the network controller is configured to control at least one of the processor modules to communicate with a second external apparatus through the single physical port using the virtual apparatus to which the MAC address is allocated, wherein the virtual apparatus is configured by the network controller using I/O virtualization to perform like the physical apparatus. a plurality of processor modules ; and a network controller comprising a single physical port , a physical apparatus and a virtual apparatus which are mapped onto the plurality of processor modules ; and a host (600") comprising: a hypervisor (610") configured to, in response to the virtual apparatus being initialized, receive a MAC address from a first external apparatus through the physical apparatus and allocate the MAC address to the virtual apparatus corresponding to one of the plurality of processor modules , wherein the network controller is configured to control at least one of the processor modules to communicate with a second external apparatus through the single physical port using the virtual apparatus to which the MAC address is allocated, wherein the virtual apparatus is configured by the network controller using I/O virtualization to perform like the physical apparatus. a hypervisor (610") configured to, in response to the virtual apparatus being initialized, receive a MAC address from a first external apparatus through the physical apparatus and allocate the MAC address to the virtual apparatus corresponding to one of the plurality of processor modules , wherein the network controller is configured to control at least one of the processor modules to communicate with a second external apparatus through the single physical port using the virtual apparatus to which the MAC address is allocated, wherein the virtual apparatus is configured by the network controller using I/O virtualization to perform like the physical apparatus.
A catalyst for preparing cumene, comprising a carrier and an active ingredient, wherein the active ingredient comprises: ingredient , which is palladium element; and ingredient , which are molybdenum element and one or more selected from a group consisting of alkali metal elements and alkaline earth metal elements; wherein the carrier comprises alumina, and wherein the alumina comprises δ-alumina, θ-alumina, or a mixture of the δ-alumina and the θ-alumina. ingredient , which is palladium element; and ingredient , which are molybdenum element and one or more selected from a group consisting of alkali metal elements and alkaline earth metal elements; wherein the carrier comprises alumina, and wherein the alumina comprises δ-alumina, θ-alumina, or a mixture of the δ-alumina and the θ-alumina.
A method for generating an image representing a magnetic susceptibility distribution of an object using magnetic resonance imaging (MRI), the method including: collecting complex magnetic resonance signals from the object having phase and magnitude information; determining additional information corresponding to the susceptibility distribution, wherein the additional information comprises predetermined characteristics of the object including information about a first region where susceptibility does not vary and a second region where susceptibility varies; and generating the image representing the magnetic susceptibility distribution of the object based on the collected phase information and the determined additional information through solving an inverse problem from magnetic field to susceptibility source, wherein: the solution includes minimizing a cost function according to an iterative process, wherein the cost function is established based on the magnetic resonance signals and the additional information and includes at least a first term based on the magnetic resonance signals and a second term based on the additional information, wherein the first term is indicative of a difference of the collected magnetic resonance signals and an estimation of the magnetic resonance signals, wherein the estimation of the magnetic resonance signals includes a convolution of a kernel and a quantitative estimation of the susceptibility distribution, wherein the second term includes a first sub term regularizing the susceptibility value in said first region and a second sub term regularizing the susceptibility value in said second region. collecting complex magnetic resonance signals from the object having phase and magnitude information; determining additional information corresponding to the susceptibility distribution, wherein the additional information comprises predetermined characteristics of the object including information about a first region where susceptibility does not vary and a second region where susceptibility varies; and generating the image representing the magnetic susceptibility distribution of the object based on the collected phase information and the determined additional information through solving an inverse problem from magnetic field to susceptibility source, wherein: the solution includes minimizing a cost function according to an iterative process, wherein the cost function is established based on the magnetic resonance signals and the additional information and includes at least a first term based on the magnetic resonance signals and a second term based on the additional information, wherein the first term is indicative of a difference of the collected magnetic resonance signals and an estimation of the magnetic resonance signals, wherein the estimation of the magnetic resonance signals includes a convolution of a kernel and a quantitative estimation of the susceptibility distribution, wherein the second term includes a first sub term regularizing the susceptibility value in said first region and a second sub term regularizing the susceptibility value in said second region.
A control method of a treatment plant for elements to be recycled or disposed comprising: - at least one crushing roll for a reduction in size of the elements to be recycled or disposed; - at least one screen operatively arranged upstream of said crushing roll to allow passage to said crushing roll only to elements having a size larger than predetermined sizes; - conveyor belt operatively arranged upstream of said screen for conveying and transferring the elements to be recycled or disposed of, said method comprising: - a measuring step of the current absorbed by said crushing roll ; - a comparing step of the measured value of said absorbed current with a first predetermined value - a reducing step of the vibrations of said screen in the case said measured value exceeds said first predetermined value; said control method characterized in comprising: - a decreasing step of the feed speed of said conveyor belt simultaneously with said reducing step of the vibrations of said screen ; - a stopping step of said screen and said conveyor belt if said value of said measured current is higher than a second predetermined value, simultaneously to said stopping step of said screen and said conveyor belt there is at least one first inversion step of the operation of said crushing roll . - at least one crushing roll for a reduction in size of the elements to be recycled or disposed; - at least one screen operatively arranged upstream of said crushing roll to allow passage to said crushing roll only to elements having a size larger than predetermined sizes; - conveyor belt operatively arranged upstream of said screen for conveying and transferring the elements to be recycled or disposed of, - a measuring step of the current absorbed by said crushing roll ; - a comparing step of the measured value of said absorbed current with a first predetermined value - a reducing step of the vibrations of said screen in the case said measured value exceeds said first predetermined value; - a decreasing step of the feed speed of said conveyor belt simultaneously with said reducing step of the vibrations of said screen ; - a stopping step of said screen and said conveyor belt if said value of said measured current is higher than a second predetermined value,
Method for estimating the influence of speckle on a quality of a radiometric calibration of an imaging spectrometer , wherein the spectrometer comprises a telescope arrangement , a detector with a plurality of detector pixels and a dispersive element which causes a dispersion k, and wherein light, in particular sunlight, is coupled into the spectrometer through a diffuser for the calibration, comprising the step: calculating (S1) a numerical contrast value C detector as C Detektor = 1 M where M represents a total degree of freedom for influencing variables that affect the contrast that can be measured by the detector , where M is composed of several individual degrees of freedom, which comprise an individual degree of freedom M polarization , an individual degree of freedom M spectral and an individual degree of freedom M pixel , where M polarization depends on a polarization of the light entering the spectrometer , where M spectral depends on a spectral resolution λ res of the spectrometer and a correlation between spectrally different monochromatic intensity distributions, where M Pixel depends on a single area A Detector of a detector pixel and a correlation area A Speckle of a speckle, and wherein the calculation is performed for an intensity distribution obtained as a superposition of monochromatic intensities describable by monochromatic fields which are circular complex Gaussian variables. where M represents a total degree of freedom for influencing variables that affect the contrast that can be measured by the detector , where M is composed of several individual degrees of freedom, which comprise an individual degree of freedom M polarization , an individual degree of freedom M spectral and an individual degree of freedom M pixel , where M polarization depends on a polarization of the light entering the spectrometer , where M spectral depends on a spectral resolution λ res of the spectrometer and a correlation between spectrally different monochromatic intensity distributions, where M Pixel depends on a single area A Detector of a detector pixel and a correlation area A Speckle of a speckle, and wherein the calculation is performed for an intensity distribution obtained as a superposition of monochromatic intensities describable by monochromatic fields which are circular complex Gaussian variables.