mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless earbud comprising: a housing having a stem portion aligned with a longitudinal axis, the stem portion including first and second ends; a speaker assembly having a driver unit and a directional sound port proximate the first end and offset from the longitudinal axis, wherein the driver unit is aligned to emit sound from the directional sound port and comprises a magnet, a voice coil, and a diaphragm; a rechargeable battery disposed in the housing; a first partial annular contact disposed at an external surface at the second end of the stem portion and electrically coupled to the rechargeable battery; a second partial annular contact disposed at an external surface at the second end of the stem portion , the first and second partial annular contacts spaced in an oppositional and symmetrical relationship with each other forming a ring-like shape; and a microphone aperture positioned within a center of the ring-like shape. a housing having a stem portion aligned with a longitudinal axis, the stem portion including first and second ends; a speaker assembly having a driver unit and a directional sound port proximate the first end and offset from the longitudinal axis, wherein the driver unit is aligned to emit sound from the directional sound port and comprises a magnet, a voice coil, and a diaphragm; a rechargeable battery disposed in the housing; a first partial annular contact disposed at an external surface at the second end of the stem portion and electrically coupled to the rechargeable battery; a second partial annular contact disposed at an external surface at the second end of the stem portion , the first and second partial annular contacts spaced in an oppositional and symmetrical relationship with each other forming a ring-like shape; and a microphone aperture positioned within a center of the ring-like shape.
A method of identifying or evaluating circulatory failure in a subject , which method comprises assessing the subject's microcirculation in respect of the following parameters: (a) functional capillary density (FCD); (b) heterogeneity of the FCD; (c) capillary flow velocity; (d) heterogeneity of capillary flow velocity; (e) oxygen saturation of microvascular erythrocytes (SmvO 2 ); and (f) heterogeneity of SmvO 2 ; wherein parameters (a) to (d) are assessed by analysis of images thereof obtained using a microscope wherein the microscope uses white, unpolarised light, and parameters (e) and (f) are assessed by analysis of spectra obtained by diffuse reflectance spectroscopy (DRS); wherein the analysis is performed on a computer comprising software for analysis of said images and spectra; wherein the method further comprises comparing the results of the assessment with reference values in order to identify or evaluate circulatory failure in said subject; wherein the microcirculation of the conjunctiva is assessed; and wherein the method is performed on data obtained from the patient and the patient is not present during the method. (a) functional capillary density (FCD); (b) heterogeneity of the FCD; (c) capillary flow velocity; (d) heterogeneity of capillary flow velocity; (e) oxygen saturation of microvascular erythrocytes (SmvO 2 ); and (f) heterogeneity of SmvO 2 ; wherein parameters (a) to (d) are assessed by analysis of images thereof obtained using a microscope wherein the microscope uses white, unpolarised light, and parameters (e) and (f) are assessed by analysis of spectra obtained by diffuse reflectance spectroscopy (DRS); wherein the analysis is performed on a computer comprising software for analysis of said images and spectra; wherein the method further comprises comparing the results of the assessment with reference values in order to identify or evaluate circulatory failure in said subject; wherein the microcirculation of the conjunctiva is assessed; and wherein the method is performed on data obtained from the patient and the patient is not present during the method. wherein parameters (a) to (d) are assessed by analysis of images thereof obtained using a microscope wherein the microscope uses white, unpolarised light, and parameters (e) and (f) are assessed by analysis of spectra obtained by diffuse reflectance spectroscopy (DRS); wherein the analysis is performed on a computer comprising software for analysis of said images and spectra; wherein the method further comprises comparing the results of the assessment with reference values in order to identify or evaluate circulatory failure in said subject; wherein the microcirculation of the conjunctiva is assessed; and wherein the method is performed on data obtained from the patient and the patient is not present during the method.
A method of code block division, comprising: determining a maximum information block length of a code block according to a plurality of division related parameters associated with a Transport Block, TB, wherein the plurality of division related parameters includes physical channel resource parameters that describe a maximum number N cb of ODFM symbols allowed to be occupied by each code block in a time domain and a number N subcarrier of frequency-domain subcarriers occupied by a transmission signal that includes the TB, and a plurality of spectral efficiency parameters that describe encoding parameters for the TB, wherein the plurality of spectral efficiency parameters include a modulation scheme, M, of the transmission signal that includes the TB, a coding rate, R, of the TB, and a number, N layer , of spatial layers occupied by the transmission signal, and wherein an encoding mode of the TB is a convolutional code; and dividing the TB having a length greater than the maximum information block length into two or more code blocks, wherein a number of the two or more code blocks are determined according to the maximum information block length, a size of the TB, and a length of cyclic redundancy check bits of each code block. determining a maximum information block length of a code block according to a plurality of division related parameters associated with a Transport Block, TB, wherein the plurality of division related parameters includes physical channel resource parameters that describe a maximum number N cb of ODFM symbols allowed to be occupied by each code block in a time domain and a number N subcarrier of frequency-domain subcarriers occupied by a transmission signal that includes the TB, and a plurality of spectral efficiency parameters that describe encoding parameters for the TB, wherein the plurality of spectral efficiency parameters include a modulation scheme, M, of the transmission signal that includes the TB, a coding rate, R, of the TB, and a number, N layer , of spatial layers occupied by the transmission signal, and wherein an encoding mode of the TB is a convolutional code; and dividing the TB having a length greater than the maximum information block length into two or more code blocks, wherein a number of the two or more code blocks are determined according to the maximum information block length, a size of the TB, and a length of cyclic redundancy check bits of each code block.
A work machine comprising: a first frame ; a second frame turnably connected to the first frame ; a steering cylinder connected to the second frame and the first frame and causing the second frame to turn with respect to the first frame ; a hydraulic pump that supplies hydraulic fluid to the steering cylinder ; an engine that drives the hydraulic pump ; a steering operating member that is operable by an operator; a steering operation sensor that outputs a steering command signal corresponding to an operation of the steering operating member ; and a controller configured to control a flow rate of hydraulic fluid supplied from the hydraulic pump to the steering cylinder by controlling a rotation speed of the engine in accordance with the steering command signal; characterised in that the controller is further configured to acquire an operating speed of the steering operating member from the steering command signal, and control the rotation speed of the engine in accordance with the operating speed. a first frame ; a second frame turnably connected to the first frame ; a steering cylinder connected to the second frame and the first frame and causing the second frame to turn with respect to the first frame ; a hydraulic pump that supplies hydraulic fluid to the steering cylinder ; an engine that drives the hydraulic pump ; a steering operating member that is operable by an operator; a steering operation sensor that outputs a steering command signal corresponding to an operation of the steering operating member ; and a controller configured to control a flow rate of hydraulic fluid supplied from the hydraulic pump to the steering cylinder by controlling a rotation speed of the engine in accordance with the steering command signal; characterised in that the controller is further configured to acquire an operating speed of the steering operating member from the steering command signal, and control the rotation speed of the engine in accordance with the operating speed. acquire an operating speed of the steering operating member from the steering command signal, and control the rotation speed of the engine in accordance with the operating speed.
Warp knitting machine comprising a warp beam having a journal , wherein the warp beam is supported on the journal by a bearing arrangement arranged on the warp knitting machine and the journal and the warp beam is driven by a torque transmission arrangement on the journal , wherein the torque transmission arrangement and the bearing arrangement are arranged separately from each other, characterized in that a first geometry is arranged at a free end of the journal and the torque transmission arrangement has a second geometry connected to a drive, the first geometry and the second geometry being adapted to one another, at least one moveable fixing element being provided in order to form a positive connection between the first geometry and the second geometry and producing the positive connection.
A method for transmitting a Sounding Reference Signal, SRS, in a Time Division Duplex, TDD, system, the method comprising: receiving an SRS configuration index I SRS from a base station; calculating a parameter n SRS based on the SRS configuration index I SRS , wherein a first equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS corresponds to one of zero to nine , and a second equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS does not correspond to zero to nine , and the first equation is different from the second equation; determining a frequency-domain starting position of the SRS based on the parameter n SRS ; transmitting the SRS at the determined frequency-domain starting position, wherein SRS configuration indices I SRS corresponding to zero to nine indicate a 2ms SRS periodicity, and wherein the first equation is n SRS =n f ∗ L+k, where n f is a system frame number for transmitting the SRS, in case an uplink-downlink configuration corresponds to one of 0, 1, 2, 6, k is 0, 1, 2 and 3 and L is 4, and in case the uplink-downlink configuration corresponds to one of 3, 4, 5, k is 0, 1 and L is 2, and the second equation is n SRS = └( n f × 10 + └ n s /2┘)/ T ┘, where n f is a system frame number for transmitting the SRS, n s is an index of a time slot for transmitting the SRS, T is an SRS periodicity corresponding to an SRS configuration index I SRS , and T is larger or equal to 5 and smaller or equal to 320. receiving an SRS configuration index I SRS from a base station; calculating a parameter n SRS based on the SRS configuration index I SRS , wherein a first equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS corresponds to one of zero to nine , and a second equation is used for calculating the parameter n SRS in case that an SRS configuration index I SRS does not correspond to zero to nine , and the first equation is different from the second equation; determining a frequency-domain starting position of the SRS based on the parameter n SRS ; transmitting the SRS at the determined frequency-domain starting position, wherein SRS configuration indices I SRS corresponding to zero to nine indicate a 2ms SRS periodicity, and wherein the first equation is n SRS =n f ∗ L+k, where n f is a system frame number for transmitting the SRS, in case an uplink-downlink configuration corresponds to one of 0, 1, 2, 6, k is 0, 1, 2 and 3 and L is 4, and in case the uplink-downlink configuration corresponds to one of 3, 4, 5, k is 0, 1 and L is 2, and the second equation is n SRS = └( n f × 10 + └ n s /2┘)/ T ┘, where n f is a system frame number for transmitting the SRS, n s is an index of a time slot for transmitting the SRS, T is an SRS periodicity corresponding to an SRS configuration index I SRS , and T is larger or equal to 5 and smaller or equal to 320.
An apparatus for simulating blood flow through a cardiovascular structure close to the heart of a patient, said cardiovascular structure including the left ventricular outflow tract, the aortic root including the aortic valve (AV), plus the ascending aorta, said apparatus comprising: an estimation circuit for estimating a cardiac ejection output per heart stroke based on a volume of the left ventricle (LV) of said patient in different filling states at two or more points in time, and for deriving at least one patient-specific boundary condition for the flow through said cardiovascular structure from said cardiac ejection output per heart stroke; and a modeling circuit for generating a volumetric mesh of said cardiovascular structure based on a partitioned segmented digital image of said cardiovascular structure; a simulation circuit for simulating a blood flow through said volumetric mesh of said cardiovascular structure under consideration of said patient-specific boundary conditions, to visualize said blood flow or to derive at least one physiological parameter of said patient, wherein said volumetric mesh represents said cardiovascular structure for an open valve state of said aortic valve (AV). an estimation circuit for estimating a cardiac ejection output per heart stroke based on a volume of the left ventricle (LV) of said patient in different filling states at two or more points in time, and for deriving at least one patient-specific boundary condition for the flow through said cardiovascular structure from said cardiac ejection output per heart stroke; and a modeling circuit for generating a volumetric mesh of said cardiovascular structure based on a partitioned segmented digital image of said cardiovascular structure; a simulation circuit for simulating a blood flow through said volumetric mesh of said cardiovascular structure under consideration of said patient-specific boundary conditions, to visualize said blood flow or to derive at least one physiological parameter of said patient, wherein said volumetric mesh represents said cardiovascular structure for an open valve state of said aortic valve (AV).
Interface arrangement on a system board , comprising - at least two data lines for a differential signal transmission via the interface arrangement, - at least one first mounting location for at least one first connector and at least one second mounting location for at least one second connector, and characterized in that the interface arrangement further comprises - a third mounting location for an integrated circuit, wherein - at the at least one first mounting location the data lines are divided into a first path and a second path , - at the at least one second mounting location the second path and the first path are joined, - the third mounting location for the integrated circuit is arranged in the first path , and - the at least one first connector and the at least one second connector can be mounted at the at least one first and at least one second mounting location in a first or a second position respectively, so that signals in the data lines run via the first path or via the second path . - at least two data lines for a differential signal transmission via the interface arrangement, - at least one first mounting location for at least one first connector and at least one second mounting location for at least one second connector, and characterized in that the interface arrangement further comprises - a third mounting location for an integrated circuit, wherein - at the at least one first mounting location the data lines are divided into a first path and a second path , - at the at least one second mounting location the second path and the first path are joined, - the third mounting location for the integrated circuit is arranged in the first path , and - the at least one first connector and the at least one second connector can be mounted at the at least one first and at least one second mounting location in a first or a second position respectively, so that signals in the data lines run via the first path or via the second path .
An imaging circuit comprising: a transimpedance amplifier circuit including an amplifier and a feedback capacitor coupled in a feedback path between an output of the amplifier and an inverting input of the amplifier ; a correlated double sampling capacitor ; a first switch selectively coupled between a first terminal of the correlated double sampling capacitor and the output of the amplifier along a first path; a second switch selectively coupled between a second terminal of the correlated double sampling capacitor and the output of the amplifier along a second path, the second switch positioned to couple the correlated double sampling capacitor into the feedback path in series with the feedback capacitor when activated; and a sample-hold capacitor coupled via a sample-hold switch to the output of the amplifier . a transimpedance amplifier circuit including an amplifier and a feedback capacitor coupled in a feedback path between an output of the amplifier and an inverting input of the amplifier ; a correlated double sampling capacitor ; a first switch selectively coupled between a first terminal of the correlated double sampling capacitor and the output of the amplifier along a first path; a second switch selectively coupled between a second terminal of the correlated double sampling capacitor and the output of the amplifier along a second path, the second switch positioned to couple the correlated double sampling capacitor into the feedback path in series with the feedback capacitor when activated; and a sample-hold capacitor coupled via a sample-hold switch to the output of the amplifier .
Method for producing a component manufactured in part additively for a technical device , wherein a basic structure of the component is manufactured with a predefined wall thickness by means of a non-additive manufacturing method, wherein at least one region of the component is determined by means of an optimization method, wherein, in the at least one region, a supporting structure is applied to the basic structure by means of an additive manufacturing method. wherein a basic structure of the component is manufactured with a predefined wall thickness by means of a non-additive manufacturing method, wherein at least one region of the component is determined by means of an optimization method, wherein, in the at least one region, a supporting structure is applied to the basic structure by means of an additive manufacturing method.
Container handling device comprising a support having a bore , and a clamping device for holding a container in a container handling device , preferably for holding a beverage container by a neck portion, wherein the clamping device comprises: a first clamping arm , arranged on a support plate pivotably about a first pivot shaft and having a holding portion for contact against the container to be held, and a second clamping arm , arranged on the support plate pivotably about a second pivot shaft and having a holding portion for contact against the container to be held, wherein the first pivot shaft and the second pivot shaft respectively have a cylinder pin portion for forming a form closure, radially to the longitudinal direction of the pivot shaft , with the bore in the support of the container handling device , wherein the clamping device comprises at least one supporting bolt which is arranged on the support plate at a distance from the pivot shafts , wherein the supporting bolt has an end face portion for supporting the pivot shafts , in the longitudinal direction , against the support of the container handling device , and a stop for supporting the pivot shafts , in the longitudinal direction , against the support plate characterized in that a fastening screw for fastening the clamping device to the support of the container handling device is provided between the pivot shafts and the at least one supporting bolt . a first clamping arm , arranged on a support plate pivotably about a first pivot shaft and having a holding portion for contact against the container to be held, and a second clamping arm , arranged on the support plate pivotably about a second pivot shaft and having a holding portion for contact against the container to be held, wherein the first pivot shaft and the second pivot shaft respectively have a cylinder pin portion for forming a form closure, radially to the longitudinal direction of the pivot shaft , with the bore in the support of the container handling device , wherein the clamping device comprises at least one supporting bolt which is arranged on the support plate at a distance from the pivot shafts , wherein the supporting bolt has an end face portion for supporting the pivot shafts , in the longitudinal direction , against the support of the container handling device , and a stop for supporting the pivot shafts , in the longitudinal direction , against the support plate characterized in that a fastening screw for fastening the clamping device to the support of the container handling device is provided between the pivot shafts and the at least one supporting bolt .