mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (100, 100a) for automatically adjusting safety control parameters of a conveyor (10, 10a) having a plurality of steps extending between a first platform and a second platform, the steps being interconnected by a step chain and driven by a main drive component, the apparatus (100, 100a) comprising: a plurality of sensors (102, 102a, 104, 104a, 106, 106a) configured to output at least a step speed signal and a step detection signal; and a safety control module (200, 200a) in communication with the sensors (102, 102a, 104, 104a, 106, 106a) and in communication with a conveyor control unit (90, 90a), characterised in that the safety control module (200, 200a) is configured to automatically determine operational and mechanical characteristics of the conveyor (10. 10a) based on outputs of the sensors (102, 102a, 104, 104a, 106, 106a), validate the operational characteristics of the conveyor (10, 10a) based on predefined nominal specifications, and determine safety control parameters corresponding to the validated operational characteristics of the conveyor (10, 10a) by which to monitor conveyor operation. a plurality of sensors (102, 102a, 104, 104a, 106, 106a) configured to output at least a step speed signal and a step detection signal; and a safety control module (200, 200a) in communication with the sensors (102, 102a, 104, 104a, 106, 106a) and in communication with a conveyor control unit (90, 90a), characterised in that the safety control module (200, 200a) is configured to automatically determine operational and mechanical characteristics of the conveyor (10. 10a) based on outputs of the sensors (102, 102a, 104, 104a, 106, 106a), validate the operational characteristics of the conveyor (10, 10a) based on predefined nominal specifications, and determine safety control parameters corresponding to the validated operational characteristics of the conveyor (10, 10a) by which to monitor conveyor operation.
A method for transmitting an explicit channel state information, CSI, report, from a user terminal to at least one device in a network, the report comprising at least one of: a dominant eigenvector, or a combination of multiple eigenvectors as a single vector, the method comprising: evaluating a number of constituent precoders to be used in providing a single precoder,;the constituent precoders comprising eigenvectors; combining the constituent precoders to form the single precoder in response to a determination that the number of constituent precoders to be used in providing the single precoder is greater than one, wherein combining the eigenvectors into the single vector further comprises applying maximum ratio combining, MRC, to combine the eigenvectors with the square root of eigenvalues as combining coefficients; and configuring a signal to transmit the explicit CSI report including the single precoder from the user terminal to the at least one device in the network wherein a user terminal speed threshold is defined and denoted as τ; a user terminal speed, v, is determined; and enabling explicit channel state information, CSI, report as combined vector feedback if the user terminal speed v ≥ τ. evaluating a number of constituent precoders to be used in providing a single precoder,;the constituent precoders comprising eigenvectors; combining the constituent precoders to form the single precoder in response to a determination that the number of constituent precoders to be used in providing the single precoder is greater than one, wherein combining the eigenvectors into the single vector further comprises applying maximum ratio combining, MRC, to combine the eigenvectors with the square root of eigenvalues as combining coefficients; and configuring a signal to transmit the explicit CSI report including the single precoder from the user terminal to the at least one device in the network wherein a user terminal speed threshold is defined and denoted as τ; a user terminal speed, v, is determined; and enabling explicit channel state information, CSI, report as combined vector feedback if the user terminal speed v ≥ τ.
A method for determining right ventricle stroke volume comprising the steps of: (a) providing as input a plurality of three-dimensional images of right cardiac ventricle of a patient over a cardiac cycle; (b) identically slicing each of the plurality of images; (c) for each time unit of the cardiac cycle, selecting the image of the time unit showing the most significant change of the right ventricle cavity as compared to the selected image in the previous time unit; (d) determining a region of interest in each slice of the selected images, wherein the region of interest shows the right ventricle of the patient; (e) determining area of the region of interest; (f) determining volume of the region of interest; (g) determining total volume of the region of interest for each time unit, wherein the maximum total volume is end diastolic volume and the minimum total volume is end systolic volume; and (h) determining the right ventricle stroke volume using an equation: Right Ventricle Stroke Volume = end diastolic volume − end systolic volume (a) providing as input a plurality of three-dimensional images of right cardiac ventricle of a patient over a cardiac cycle; (b) identically slicing each of the plurality of images; (c) for each time unit of the cardiac cycle, selecting the image of the time unit showing the most significant change of the right ventricle cavity as compared to the selected image in the previous time unit; (d) determining a region of interest in each slice of the selected images, wherein the region of interest shows the right ventricle of the patient; (e) determining area of the region of interest; (f) determining volume of the region of interest; (g) determining total volume of the region of interest for each time unit, wherein the maximum total volume is end diastolic volume and the minimum total volume is end systolic volume; and (h) determining the right ventricle stroke volume using an equation: Right Ventricle Stroke Volume = end diastolic volume − end systolic volume
Corner joint suitable for being disposed inside longitudinal channels of two profiles for fastening said two profiles; said corner joint comprising: - two wings, each of them suitable for being disposed inside the longitudinal channel of one of the two profiles; each wing comprises an upper element and a lower element joined to the upper element; - adjustment means to move said upper element of each wing in such a way to adjust the distance between the upper elements and the lower elements of the two wings; said adjustment means comprising: - a threaded hole obtained on the upper element of at least one of the two wings; - a housing obtained on the lower element of at least one of the two wings and aligned with the threaded hole; said housing comprising a lateral wall; - a nut screwed into said threaded hole and comprising a tip disposed in the housing; said corner joint being characterized by the fact that the thread of the nut is engaged, in correspondence of the tip, in a removable thread that is obtained on the lateral wall of the housing. - two wings, each of them suitable for being disposed inside the longitudinal channel of one of the two profiles; each wing comprises an upper element and a lower element joined to the upper element; - adjustment means to move said upper element of each wing in such a way to adjust the distance between the upper elements and the lower elements of the two wings; said adjustment means comprising: - a threaded hole obtained on the upper element of at least one of the two wings; - a housing obtained on the lower element of at least one of the two wings and aligned with the threaded hole; said housing comprising a lateral wall; - a nut screwed into said threaded hole and comprising a tip disposed in the housing; - a threaded hole obtained on the upper element of at least one of the two wings; - a housing obtained on the lower element of at least one of the two wings and aligned with the threaded hole; said housing comprising a lateral wall; - a nut screwed into said threaded hole and comprising a tip disposed in the housing;
A battery module, comprising: a battery cell assembly having a plurality of battery cells; a top plate configured to cover an upper side of the battery cell assembly; a bottom plate disposed opposite to the top plate and configured to cover a lower side of the battery cell assembly; a sensing assembly disposed at a front side and a rear side of the bottom plate and the top plate to cover a front side and a rear side of the battery cell assembly; a pair of side plates coupled to the sensing assembly, the top plate and the bottom plate and disposed at both side surfaces of the battery cell assembly; and a pair of compression pads disposed between the pair of side plates (500, 800) and the battery cell assembly, wherein the sensing assembly includes a first bus bar unit, a second bus bar unit, and a sensing wire, wherein the first bus bar unit and the second bus bar unit are coupled to the pair of side plates by means of at least one coupling pin. a battery cell assembly having a plurality of battery cells; a top plate configured to cover an upper side of the battery cell assembly; a bottom plate disposed opposite to the top plate and configured to cover a lower side of the battery cell assembly; a sensing assembly disposed at a front side and a rear side of the bottom plate and the top plate to cover a front side and a rear side of the battery cell assembly; a pair of side plates coupled to the sensing assembly, the top plate and the bottom plate and disposed at both side surfaces of the battery cell assembly; and a pair of compression pads disposed between the pair of side plates (500, 800) and the battery cell assembly, wherein the sensing assembly includes a first bus bar unit, a second bus bar unit, and a sensing wire, wherein the first bus bar unit and the second bus bar unit are coupled to the pair of side plates by means of at least one coupling pin.
Sheet steel coated with a zinc-based coating (1.2) and skin-pass rolled with a deterministic surface structure, the surface structure having peak regions (2.1) and valley regions (2.2) which are connected to one another via flank regions (2.3), characterized in that the coating, as well as zinc and unavoidable impurities, comprises additional elements such as aluminum with an amount of 0.1 up to 5 wt% and magnesium with an amount of 0.1 up to 5 wt% in the coating (1.2), a relative concentration of magnesium on the surface of the coating (1.2) in the valley regions (2.2) being lower than on the surface of the coating (1.2) in the peak regions (2.1).
A crystalline carbon material, comprising: a crystal structure including a plurality of atom layers with a controlled interlayer spacing between two adjacent atom layers formed in a crystal plane, the controlled interlayer spacing represented by peaks of the crystal plane, measured by a X-ray diffraction using CuKα ray, at scattering angles of the CuKα ray 23°±5.0° and 26.5°±1.0°, with the peak height at the scattering angle of the CuKα ray 23°±5.0° being higher than the one at the scattering angle 26.5°±1.0°, wherein the crystalline carbon material: has a peak ratio (b/a) ranging from 0.01 to 0.99 between the peak height (b) at 2θ=26.5°±1.0° and the peak height (a) at 2θ=23°±5.0°; has a tap density within the range from 0.5g/cc to 1.5g/cc; and comprises natural graphite, artificial graphite, mesophase carbon microbeads, or a combination thereof. has a peak ratio (b/a) ranging from 0.01 to 0.99 between the peak height (b) at 2θ=26.5°±1.0° and the peak height (a) at 2θ=23°±5.0°; has a tap density within the range from 0.5g/cc to 1.5g/cc; and comprises natural graphite, artificial graphite, mesophase carbon microbeads, or a combination thereof.
A voltage sampling circuit for sampling the voltage of at least two sets of cells (1, 2) in a battery pack, the voltage sampling circuit comprising: at least two analog front ends, AFEs (11, 12), comprising a low-side AFE connected to a first set of cells and a high-side AFE connected to a second set of cells; a subtractor for obtaining the analog voltage of the second set of cells connected to the high-side AFE with respect to ground comprising: a positive input terminal connecting to an output interface (Uout2) of the high-side AFE for receiving the analog voltage output by the high-side AFE; and a negative input terminal, which when the first set of cells is connected with the second set of cells in series is connected to the total positive voltage of the first set of cells, and which when the first set of cells is connected with the second set of cells in parallel is grounded. at least two analog front ends, AFEs (11, 12), comprising a low-side AFE connected to a first set of cells and a high-side AFE connected to a second set of cells; a subtractor for obtaining the analog voltage of the second set of cells connected to the high-side AFE with respect to ground comprising: a positive input terminal connecting to an output interface (Uout2) of the high-side AFE for receiving the analog voltage output by the high-side AFE; and a negative input terminal, which when the first set of cells is connected with the second set of cells in series is connected to the total positive voltage of the first set of cells, and which when the first set of cells is connected with the second set of cells in parallel is grounded. a positive input terminal connecting to an output interface (Uout2) of the high-side AFE for receiving the analog voltage output by the high-side AFE; and a negative input terminal, which when the first set of cells is connected with the second set of cells in series is connected to the total positive voltage of the first set of cells, and which when the first set of cells is connected with the second set of cells in parallel is grounded.
A method of lysing red blood cells comprising: contacting a sample comprising red blood cells and white blood cells with a lysis buffer comprising a fixative, wherein the solute concentration of the lysis buffer is greater than the solute concentration of the sample, and wherein the sample and the lysis buffer form a first mixture including 0.5-3% formaldehyde, 0.5-20 mM EDTA, and 1.2-1.8X phosphate buffered saline; adding a second buffer, comprising 0.5X to 1X PBS to the first mixture to form a second mixture, wherein the solute concentration in the second mixture is at least 90% of the solute concentration of the sample and whereby the red blood cells in the sample are lysed. contacting a sample comprising red blood cells and white blood cells with a lysis buffer comprising a fixative, wherein the solute concentration of the lysis buffer is greater than the solute concentration of the sample, and wherein the sample and the lysis buffer form a first mixture including 0.5-3% formaldehyde, 0.5-20 mM EDTA, and 1.2-1.8X phosphate buffered saline; adding a second buffer, comprising 0.5X to 1X PBS to the first mixture to form a second mixture, wherein the solute concentration in the second mixture is at least 90% of the solute concentration of the sample and whereby the red blood cells in the sample are lysed.
Cooling circuit for an engine, comprising a device for insulating the cooling circuit of the engine for sound frequencies of between 300 Hz and 1 000 Hz, preferably between 500 Hz and 700 Hz, the device consisting of a circular grille comprising openings, the grille having a thickness (e) and a first diameter, the thickness of the grille being greater than one tenth of the first diameter, characterised in that the grille comprises exactly eleven circular openings (68, 70) with predetermined diameters, including exactly four circular openings with a second diameter and exactly seven circular openings with a third diameter, the second diameter being greater than the third diameter.
Method for operating a screen wheel filter for highly viscous melts at pressures of greater than 10 bar and temperatures of greater than 90°C, said filter having a screen wheel, which holds screen inserts, and a rotary drive, which is assigned to the screen wheel and drives the latter in rotation in a stepwise manner, and having a backflushing cleaning station, in which a stream of cleaning agent generated by a cleaning agent drive is applied successively to the screen inserts, wherein assigned to the cleaning-agent drive is a backflushing nozzle, which is arranged downstream in the cleaning agent flow direction and is designed as a slot-type nozzle and whose effective opening covers, in its radial extent, a screen insert situated in the backflushing cleaning station, and having a control or regulation device which acts on the cleaning agent drive, wherein the cleaning backflushing is realized while the screen wheel is rotating, and the control or regulation device sets the cleaning agent quantity and/or the cleaning agent pressure and/or the cleaning agent flow speed in a manner dependent on the temporal profile of the rotation of the screen wheel and/or in a manner dependent on the rotational speed of the screen wheel and/or in a manner dependent on a differential pressure prevailing at the screen insert situated in the melt channel, wherein the dimension of the effective opening of the slot-type nozzle normal to the radial and the distance covered by the screen wheel during a drive step are matched to one another such that the effective opening of the slot-type nozzle is smaller than the distance covered by the screen wheel during a drive step, and wherein, parallel to a starting process for the rotation of the screen wheel, at least the cleaning agent pressure is set so as to be elevated in relation to the pressure profile while the screen wheel is rotating.
A system for providing improvement in cardiac performance for a patient in heart failure, the system comprising: a catheter (31, 31', 80, 90) having a proximal end and a distal region (34, 72, 84), the catheter configured for intravascular placement so that the distal region is disposed in a superior vena cava of the patient; a flow limiting element (32, 32', 50, 81, 91, 112, 130, 133, 137, 143) disposed on the distal region of the catheter, the flow limiting element configured to be selectively actuated to at least partially occlude the SVC; and a controller configured to be operatively coupled to the catheter to intermittently actuate the flow limiting element to at least partially occlude the SVC for an interval spanning multiple cardiac cycles, wherein the controller is configured to intermittently actuate the flow limiting element to at least partially occlude the SVC for a first predetermined time interval and to contract for a second predetermined time interval over multiple cardiac cycles, wherein the first predetermined time interval is at least five times greater than the second predetermined time interval; wherein the controller is configured to reduce cardiac preload during the interval sufficiently to improve cardiac performance as measured by at least one of: reduced cardiac filling pressures, increased left ventricular relaxation, increased left ventricular capacitance, increased left ventricular stroke volume, increased lusitropy, reduced left ventricular stiffness, or reduced cardiac strain. a catheter (31, 31', 80, 90) having a proximal end and a distal region (34, 72, 84), the catheter configured for intravascular placement so that the distal region is disposed in a superior vena cava of the patient; a flow limiting element (32, 32', 50, 81, 91, 112, 130, 133, 137, 143) disposed on the distal region of the catheter, the flow limiting element configured to be selectively actuated to at least partially occlude the SVC; and a controller configured to be operatively coupled to the catheter to intermittently actuate the flow limiting element to at least partially occlude the SVC for an interval spanning multiple cardiac cycles, wherein the controller is configured to intermittently actuate the flow limiting element to at least partially occlude the SVC for a first predetermined time interval and to contract for a second predetermined time interval over multiple cardiac cycles, wherein the first predetermined time interval is at least five times greater than the second predetermined time interval; wherein the controller is configured to reduce cardiac preload during the interval sufficiently to improve cardiac performance as measured by at least one of: reduced cardiac filling pressures, increased left ventricular relaxation, increased left ventricular capacitance, increased left ventricular stroke volume, increased lusitropy, reduced left ventricular stiffness, or reduced cardiac strain.
An aerosol generating article (1, 2) for use with an aerosol generating device including a magnetic field generator, the aerosol generating article (1, 2) comprising: first and second discrete compartments (46, 48) configured to contain respectively a first aerosol generating substance and a second aerosol generating substance; and an inductively heatable susceptor configured to be inductively heated by the magnetic field generator, the inductively heatable susceptor having a first part positioned in the first compartment and a second part positioned in the second compartment; characterized in that the first and second parts (58, 60) of the inductively heatable susceptor are configured to have different orientations from each other with respect to the magnetic field generator. first and second discrete compartments (46, 48) configured to contain respectively a first aerosol generating substance and a second aerosol generating substance; and an inductively heatable susceptor configured to be inductively heated by the magnetic field generator, the inductively heatable susceptor having a first part positioned in the first compartment and a second part positioned in the second compartment; characterized in that the first and second parts (58, 60) of the inductively heatable susceptor are configured to have different orientations from each other with respect to the magnetic field generator.
A network node (28 1) of a radio access network comprising a scheduler and a detector, characterized in that: the detector is adapted to determine, using radio measurements, whether a wireless terminal (30 1) served by the network node (28 1) is an indoor wireless terminal being within a building or within a vehicle occasioning a loss factor to a power signal emanating from the wireless terminal based on a signal strength of the wireless terminal and a timing advance of the wireless terminal; for a wireless terminal determined to be an indoor wireless terminal (30 1), the scheduler is adapted to allocate an uplink resource to the indoor wireless terminal (30 1) for communications over an air interface with the network node (28 1), the allocation by the network node (28 1) being in a coordinated manner with resource allocation of another network node (28 2), wherein if said uplink resource is also allocated by another network node (28 2), said another network node (28 2) is adapted to allocate said uplink resource only to another indoor wireless terminal (30 2) served by said another network node (28 2). the detector is adapted to determine, using radio measurements, whether a wireless terminal (30 1) served by the network node (28 1) is an indoor wireless terminal being within a building or within a vehicle occasioning a loss factor to a power signal emanating from the wireless terminal based on a signal strength of the wireless terminal and a timing advance of the wireless terminal; for a wireless terminal determined to be an indoor wireless terminal (30 1), the scheduler is adapted to allocate an uplink resource to the indoor wireless terminal (30 1) for communications over an air interface with the network node (28 1), the allocation by the network node (28 1) being in a coordinated manner with resource allocation of another network node (28 2), wherein if said uplink resource is also allocated by another network node (28 2), said another network node (28 2) is adapted to allocate said uplink resource only to another indoor wireless terminal (30 2) served by said another network node (28 2).