mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system, comprising: a fuel cell configured to generate electricity using a fuel gas and an oxygen-containing gas; an oxygen-containing gas supply configured to supply the oxygen-containing gas to the fuel cell; a power level regulator configured to regulate a power level of the fuel cell; and a controller configured to control the oxygen-containing gas supply and the power level regulator, wherein the controller controls the oxygen-containing gas supply and the power level regulator to cause the power level of the fuel cell controllable by the power level regulator and an oxygen-containing gas utilization (Ua) to have an increase-control section in which the oxygen-containing gas utilization (Ua) increases in accordance with an increase in the power level of the fuel cell, a first section in which the oxygen-containing gas utilization (Ua) is constant against an increase in the power level of the fuel cell, and a decrease-control section in which the oxygen-containing gas utilization (Ua) decreases in accordance with an increase in the power level of the fuel cell, in this order, and the oxygen-containing gas utilization (Ua) is a ratio of an amount of the oxygen-containing gas used by the fuel cell for power generation to an amount of the oxygen-containing gas supplied to the fuel cell. a fuel cell configured to generate electricity using a fuel gas and an oxygen-containing gas; an oxygen-containing gas supply configured to supply the oxygen-containing gas to the fuel cell; a power level regulator configured to regulate a power level of the fuel cell; and a controller configured to control the oxygen-containing gas supply and the power level regulator, wherein the controller controls the oxygen-containing gas supply and the power level regulator to cause the power level of the fuel cell controllable by the power level regulator and an oxygen-containing gas utilization (Ua) to have an increase-control section in which the oxygen-containing gas utilization (Ua) increases in accordance with an increase in the power level of the fuel cell, a first section in which the oxygen-containing gas utilization (Ua) is constant against an increase in the power level of the fuel cell, and a decrease-control section in which the oxygen-containing gas utilization (Ua) decreases in accordance with an increase in the power level of the fuel cell, in this order, and the oxygen-containing gas utilization (Ua) is a ratio of an amount of the oxygen-containing gas used by the fuel cell for power generation to an amount of the oxygen-containing gas supplied to the fuel cell.
A control device comprising: a sound-output-control unit (100A; 100B) that controls sound output by a sound-output device (3711, 3713) on a basis of information related to surgery, wherein: the sound-output-control unit (100A; 100B) controls sound output based on sound information collected by a sound-collecting unit including a plurality of microphones; the sound-output-control unit (100A; 100B) controls sound output based on the sound information collected by the plurality of microphones; characterized in that the sound-output-control unit (100A; 100B) controls sound output on a basis of a result of sound-source separation of the sound information based on positions of the plurality of microphones and sound-source-position information. a sound-output-control unit (100A; 100B) that controls sound output by a sound-output device (3711, 3713) on a basis of information related to surgery, wherein: the sound-output-control unit (100A; 100B) controls sound output based on sound information collected by a sound-collecting unit including a plurality of microphones; the sound-output-control unit (100A; 100B) controls sound output based on the sound information collected by the plurality of microphones; characterized in that the sound-output-control unit (100A; 100B) controls sound output on a basis of a result of sound-source separation of the sound information based on positions of the plurality of microphones and sound-source-position information. the sound-output-control unit (100A; 100B) controls sound output based on sound information collected by a sound-collecting unit including a plurality of microphones; the sound-output-control unit (100A; 100B) controls sound output based on the sound information collected by the plurality of microphones; characterized in that the sound-output-control unit (100A; 100B) controls sound output on a basis of a result of sound-source separation of the sound information based on positions of the plurality of microphones and sound-source-position information.
An autonomous floor cleaner, comprising: an autonomously moveable housing; a controller; a drive system adapted to autonomously move the housing over a surface to be cleaned; a tank (44,51) adapted to hold liquid; and characterized by having a speaker; a tilt sensor (104,106,112) configured to detect a tilt angle of the autonomous floor cleaner and provide this information as an input to the controller; and wherein the controller is configured to: operate the drive system to control autonomous movement of the housing over the surface to be cleaned; and issue an audible warning from the speaker in response to the detected tilt angle meeting or exceeding a predetermined tilt angle. an autonomously moveable housing; a controller; a drive system adapted to autonomously move the housing over a surface to be cleaned; a tank (44,51) adapted to hold liquid; and characterized by having a speaker; a tilt sensor (104,106,112) configured to detect a tilt angle of the autonomous floor cleaner and provide this information as an input to the controller; and wherein the controller is configured to: operate the drive system to control autonomous movement of the housing over the surface to be cleaned; and issue an audible warning from the speaker in response to the detected tilt angle meeting or exceeding a predetermined tilt angle. operate the drive system to control autonomous movement of the housing over the surface to be cleaned; and issue an audible warning from the speaker in response to the detected tilt angle meeting or exceeding a predetermined tilt angle.
A method to determine a virtual density of a polymer having short chain branches comprising: a). determining a plurality of density values as a function of a Molecular Weight and a Molecular Weight Distribution profile of the polymer wherein each of the plurality of density values is determined at a different MW location across the MWD profile; and b). adjusting the plurality of density values for a SCB contribution to density suppression to obtain an adjusted density value;; and c). summing the adjusted density values to obtain a virtual density; wherein the SCB, MW and the MWD comprise data obtained as measured properties, data provided as a digitally determined value, data obtained by curve fitting the data obtained as measured properties, data provided as an arbitrarily assigned value or a combination thereof, the method characterised in that in step b) the plurality of density values is adjusted using bulk SCB data and size exclusion chromatography polydispersity values for a variety of 1-hexene copolymer samples with various architectures. a). determining a plurality of density values as a function of a Molecular Weight and a Molecular Weight Distribution profile of the polymer wherein each of the plurality of density values is determined at a different MW location across the MWD profile; and b). adjusting the plurality of density values for a SCB contribution to density suppression to obtain an adjusted density value;; and c). summing the adjusted density values to obtain a virtual density; wherein the SCB, MW and the MWD comprise data obtained as measured properties, data provided as a digitally determined value, data obtained by curve fitting the data obtained as measured properties, data provided as an arbitrarily assigned value or a combination thereof, the method characterised in that in step b) the plurality of density values is adjusted using bulk SCB data and size exclusion chromatography polydispersity values for a variety of 1-hexene copolymer samples with various architectures.
Method for operating an x-ray device for recording a series of images for in particular fluoroscopic monitoring of a recording region of a patient, wherein fluoroscopy images are acquired with a recording rate and a recording dose and are displayed to a user on a display device with a frame rate, wherein the recording dose is selected automatically per fluoroscopy image as a function of a change in image contents between the current consecutive fluoroscopy images, wherein a comparison measure between the two most up to date fluoroscopy images is selected as a measure of the change in image contents, and wherein with a reduction in the recording dose a display image, which corresponds to a maximally usable base dose, is determined from in each case a number of fluoroscopy images recorded consecutively and output to the display device.
A doctor blade assembly suitable for a rotogravure printing unit, the assembly comprising a doctor blade, doctor blade support means adapted to be connected to a fixed frame of the unit and to permit a reciprocating motion of the blade along a motion axis (X') parallel to the elongation direction of the blade, and drive means functionally linked with the blade to transmit said reciprocating motion thereto, characterized in that the support means comprise a pair of elastically deformable laminar members (41, 42) arranged between respective end regions of said blade and said fixed frame, said members (41, 42) extend over respective planes orthogonal to the motion axis (X') and are arranged to allow said reciprocating motion while blocking the movement of the blade along any direction perpendicular to the motion axis (X').
Rotor of an electric machine, - wherein the rotor has a rotor laminated core connected to a rotor shaft of the rotor in a rotationally-fixed manner, - wherein the rotor laminated core extends from a first axial end face of the rotor laminated core to a second axial end face of the rotor laminated core when viewed in the direction of an axis of rotation of the rotor laminated core, - wherein the rotor laminated core has recesses that are distributed around the axis of rotation and extend from the first axial end face to the second axial end face when viewed in the direction of the axis of rotation, - wherein a tie rod, which projects beyond the axial end faces (7, 8) when viewed in the direction of the axis of rotation, is introduced into each of the recesses, - wherein fastening elements are positioned on the tie rods on both axial end faces (7, 8), so that the rotor sheets of the rotor laminated core are pressed against one another by means of the fastening elements without the arrangement of rotor pressure rings between the end faces (7, 8) of the rotor laminated core and the fastening elements, characterised in that - a fan is positioned on the tie rods on the first axial end face of the rotor laminated core, and - the fastening elements are preferably arranged on the first axial end face of the rotor laminated core between the end face and the fan. - wherein the rotor has a rotor laminated core connected to a rotor shaft of the rotor in a rotationally-fixed manner, - wherein the rotor laminated core extends from a first axial end face of the rotor laminated core to a second axial end face of the rotor laminated core when viewed in the direction of an axis of rotation of the rotor laminated core, - wherein the rotor laminated core has recesses that are distributed around the axis of rotation and extend from the first axial end face to the second axial end face when viewed in the direction of the axis of rotation, - wherein a tie rod, which projects beyond the axial end faces (7, 8) when viewed in the direction of the axis of rotation, is introduced into each of the recesses, - wherein fastening elements are positioned on the tie rods on both axial end faces (7, 8), so that the rotor sheets of the rotor laminated core are pressed against one another by means of the fastening elements without the arrangement of rotor pressure rings between the end faces (7, 8) of the rotor laminated core and the fastening elements, - a fan is positioned on the tie rods on the first axial end face of the rotor laminated core, and - the fastening elements are preferably arranged on the first axial end face of the rotor laminated core between the end face and the fan.
An adhesive composition comprising: a rubber component containing a diene-based elastomer; and a compound having a polar functional group in its molecule, wherein the content of the compound is 10 parts by mass to 90 parts by mass per 100 parts by mass of the diene based elastomer and wherein the compound has a molecular weight of 500 or less. a rubber component containing a diene-based elastomer; and a compound having a polar functional group in its molecule, wherein the content of the compound is 10 parts by mass to 90 parts by mass per 100 parts by mass of the diene based elastomer and wherein the compound has a molecular weight of 500 or less.
An aerofoil blade or vane for the turbine of a gas turbine engine, the blade or vane including: an aerofoil portion which, in use, extends radially across a working gas annulus of the engine, a coolant inlet being formed at an end of the aerofoil portion for entry of a flow of cooling air into the aerofoil portion, a corresponding coolant exhaust being formed at the trailing edge of the aerofoil portion for the flow of spent cooling air from the aerofoil portion, and a plurality of passages within the aerofoil portion connecting the inlet to the exhaust, and a fence within the aerofoil portion, the fence extending radially and forwardly in a substantially straight line from a start position at said end of the aerofoil portion adjacent the trailing edge to an end position; wherein the passages are defined by passage walls forming nested loops which extend along a first side of the fence, wrap around the end position, and extends along a second side of the fence to connect the inlet to the exhaust, the passages are nested around the fence F, with the innermost passage of the nest extending on the first side of the fence from a position rearward of the end position and forward of the start position and approaches the exhaust at a position rearward of the end position and radially between the start position and the end position. an aerofoil portion which, in use, extends radially across a working gas annulus of the engine, a coolant inlet being formed at an end of the aerofoil portion for entry of a flow of cooling air into the aerofoil portion, a corresponding coolant exhaust being formed at the trailing edge of the aerofoil portion for the flow of spent cooling air from the aerofoil portion, and a plurality of passages within the aerofoil portion connecting the inlet to the exhaust, and a fence within the aerofoil portion, the fence extending radially and forwardly in a substantially straight line from a start position at said end of the aerofoil portion adjacent the trailing edge to an end position; wherein the passages are defined by passage walls forming nested loops which extend along a first side of the fence, wrap around the end position, and extends along a second side of the fence to connect the inlet to the exhaust, the passages are nested around the fence F, with the innermost passage of the nest extending on the first side of the fence from a position rearward of the end position and forward of the start position and approaches the exhaust at a position rearward of the end position and radially between the start position and the end position.
A light module (105; 106) for a lighting device of a motor vehicle for radiating a radiant light distribution, comprising: - a laser light source and a primary optical device adapted to generate a primary light beam comprising laser light; - a photoluminescent element arranged such that the primary light beam impinges on the photoluminescent element to generate from the impinging primary light beam a secondary light beam comprising white light; and - a one-piece secondary optical device with a light guide body arranged in the beam path after the photoluminescent element, the light guide body comprising a light extraction portion for radiating the radiant light distribution; characterized in that the light guide body comprises: - a light couplng portion comprising at least partially a reflective layer (27, 28) for allowing a first part of the secondary light beam to enter the light guide body by means of the light coupling portion and reflecting a second part of the secondary light beam back onto the photoluminescent element; and - a reflector portion for reflecting light transmitting through the light coupling portion into the light guide body by means of the reflector porton to the light extraction portion. - a laser light source and a primary optical device adapted to generate a primary light beam comprising laser light; - a photoluminescent element arranged such that the primary light beam impinges on the photoluminescent element to generate from the impinging primary light beam a secondary light beam comprising white light; and - a one-piece secondary optical device with a light guide body arranged in the beam path after the photoluminescent element, - a light couplng portion comprising at least partially a reflective layer (27, 28) for allowing a first part of the secondary light beam to enter the light guide body by means of the light coupling portion and reflecting a second part of the secondary light beam back onto the photoluminescent element; and - a reflector portion for reflecting light transmitting through the light coupling portion into the light guide body by means of the reflector porton to the light extraction portion.
An information processing device, comprising: a communication unit arranged to receive positions from a plurality of terminals each capable of calculating a position indicating a latitude and a longitude; an area determination unit arranged to make a decision, based upon the positions received at the communication unit, as to in which of areas defined in advance based upon latitudes and longitudes thereof, the terminals are located; a separation determination unit arranged to calculate an extent of separation to which an area where one terminal is located and an area where another terminal is located are separated from each other, and to determine whether a predetermined relationship is achieved with regard to the extent of separation between the one terminal and the other terminal based on the calculated extent of separation; and a distance determination unit arranged to calculate, using the latitude and longitude of each of the terminals, a distance between the one terminal and the other terminal having been determined by the separation determination unit to achieve the predetermined relationship with regard to the extent of separation and to determine whether a further predetermined relationship is achieved with regard to the distance having been calculated. a communication unit arranged to receive positions from a plurality of terminals each capable of calculating a position indicating a latitude and a longitude; an area determination unit arranged to make a decision, based upon the positions received at the communication unit, as to in which of areas defined in advance based upon latitudes and longitudes thereof, the terminals are located; a separation determination unit arranged to calculate an extent of separation to which an area where one terminal is located and an area where another terminal is located are separated from each other, and to determine whether a predetermined relationship is achieved with regard to the extent of separation between the one terminal and the other terminal based on the calculated extent of separation; and a distance determination unit arranged to calculate, using the latitude and longitude of each of the terminals, a distance between the one terminal and the other terminal having been determined by the separation determination unit to achieve the predetermined relationship with regard to the extent of separation and to determine whether a further predetermined relationship is achieved with regard to the distance having been calculated.
A rotor for a synchronous reluctance machine, a cross-section of the rotor comprising: four pole sectors arranged symmetrically about a central aperture of the cross-section, each pole sector comprising a plurality of insulating barriers, each insulating barrier extending between two pitch points, a plurality of q-axes, each q-axis defining a direction of maximum reluctance of the corresponding pole sector, a perimeter defining the outer contour of the cross-section, a plurality of reference points located on the perimeter symmetrically with regard to the q-axes, the angular intervals between the reference points defining reference angles (9, 10) which between two neighbouring q-axes have an equal value of α m = γ /( k -1), where γ is an angle between two pitch points that are furthest apart between two neighbouring q-axes and k is the number of pitch points between two neighbouring q-axes, a q-axis pitch angle defined by an angular distance δ between two neighbouring pitch points on opposite sides of a q-axis, the q-axis pitch angle having a value which is different from δ = 3*α m, the angular positions of each pitch point and the reference point closest to that pitch point have a deviation having a value Δτ less than 2,5 degrees, characterized in that the q-axis pitch angle has a value δ between 30 and 38 degrees, and in that k=8. four pole sectors arranged symmetrically about a central aperture of the cross-section, each pole sector comprising a plurality of insulating barriers, each insulating barrier extending between two pitch points, a plurality of q-axes, each q-axis defining a direction of maximum reluctance of the corresponding pole sector, a perimeter defining the outer contour of the cross-section, a plurality of reference points located on the perimeter symmetrically with regard to the q-axes, the angular intervals between the reference points defining reference angles (9, 10) which between two neighbouring q-axes have an equal value of α m = γ /( k -1), where γ is an angle between two pitch points that are furthest apart between two neighbouring q-axes and k is the number of pitch points between two neighbouring q-axes, a q-axis pitch angle defined by an angular distance δ between two neighbouring pitch points on opposite sides of a q-axis, the q-axis pitch angle having a value which is different from δ = 3*α m, the angular positions of each pitch point and the reference point closest to that pitch point have a deviation having a value Δτ less than 2,5 degrees, characterized in that the q-axis pitch angle has a value δ between 30 and 38 degrees, and in that k=8.
Dental blank for the manufacturing of a dental restoration comprising a) a dental block made from composite material having a translucency of 10 % - 40 %, according to a reflection spectrum in the range of 380-780 nm, wherein the translucency is determined by using a plate of 1 mm, which is measured without background, known as black standard, and with a white standard as background serving as reference, and b) an insert made of ceramic or composite with an opening facing towards an outer surface of the dental blank, wherein the insert comprises at least one positioning element for the positioning of an abutment. a) a dental block made from composite material having a translucency of 10 % - 40 %, according to a reflection spectrum in the range of 380-780 nm, wherein the translucency is determined by using a plate of 1 mm, which is measured without background, known as black standard, and with a white standard as background serving as reference, and b) an insert made of ceramic or composite with an opening facing towards an outer surface of the dental blank, wherein the insert comprises at least one positioning element for the positioning of an abutment.