mhurhangee/ep-ind-claims huggingface dataset:
An extrusion device with a material inlet for feeding an extrusion material into the extrusion device; a material outlet, which is arranged opposite the material inlet along an axis (x), in order to expel the extrusion material from the extrusion device; a material guidance system for guiding the extrusion material from the material inlet to the material outlet; a body, which is arranged on the axis (x) and is movable along the axis (x), which passes through the material outlet and is designed in such a way that, as the body moves along the axis (x), a cross-sectional area through which the extrusion material is expelled from the material outlet changes; a drive device, arranged along the axis (x), for moving the body along the axis (x); a cooling line system for guiding coolant; characterized in that a first part of the cooling line system is arranged in the interior of the body and is suitable for guiding the coolant along the axis (x); a second part of the cooling line system is suitable for guiding the coolant out of the body away from the axis (x) and for conducting said coolant around the drive device; a third part of the cooling line system is suitable for guiding the coolant outwardly into a discharge line for the coolant obliquely to the axis (x); and against a flow direction of the extrusion material from the material inlet to the material outlet the second part of the cooling line system adjoins the first part of the cooling line system, and the third part of the cooling line system adjoins the second part of the cooling line system. a material inlet for feeding an extrusion material into the extrusion device; a material outlet, which is arranged opposite the material inlet along an axis (x), in order to expel the extrusion material from the extrusion device; a material guidance system for guiding the extrusion material from the material inlet to the material outlet; a body, which is arranged on the axis (x) and is movable along the axis (x), which passes through the material outlet and is designed in such a way that, as the body moves along the axis (x), a cross-sectional area through which the extrusion material is expelled from the material outlet changes; a drive device, arranged along the axis (x), for moving the body along the axis (x); a cooling line system for guiding coolant; characterized in that a first part of the cooling line system is arranged in the interior of the body and is suitable for guiding the coolant along the axis (x); a second part of the cooling line system is suitable for guiding the coolant out of the body away from the axis (x) and for conducting said coolant around the drive device; a third part of the cooling line system is suitable for guiding the coolant outwardly into a discharge line for the coolant obliquely to the axis (x); and against a flow direction of the extrusion material from the material inlet to the material outlet the second part of the cooling line system adjoins the first part of the cooling line system, and the third part of the cooling line system adjoins the second part of the cooling line system.
System for recording personal accident data in a vehicle, comprising at least one infrared camera for recording image data of at least one vehicle occupant, wherein the infrared camera is designed as a high-speed camera, a ring buffer for storing the captured image data, a control unit which is designed to receive an accident entry signal and to control the ring buffer and/or the infrared camera in such a way that the storage of the image data is terminated at an end time ( t stop), wherein the end time ( t stop) is a predefined time interval ( t def) after the reception of the accident entry signal, and wherein the personal accident data comprises at least the image data stored in the ring buffer, at least one illumination device which emits light in the infrared range for illuminating the at least one vehicle occupant, and an analysis unit for analyzing the captured image data, wherein the analysis unit is designed to compare a face of the at least one vehicle occupant with at least one stored face. at least one infrared camera for recording image data of at least one vehicle occupant, wherein the infrared camera is designed as a high-speed camera, a ring buffer for storing the captured image data, a control unit which is designed to receive an accident entry signal and to control the ring buffer and/or the infrared camera in such a way that the storage of the image data is terminated at an end time ( t stop), wherein the end time ( t stop) is a predefined time interval ( t def) after the reception of the accident entry signal, and wherein the personal accident data comprises at least the image data stored in the ring buffer, at least one illumination device which emits light in the infrared range for illuminating the at least one vehicle occupant, and an analysis unit for analyzing the captured image data, wherein the analysis unit is designed to compare a face of the at least one vehicle occupant with at least one stored face.
A method for generating a digital representation of one or more assets (108A-N) in a cloud computing environment comprising: extracting, by a processor of a cloud computing system comprised in the cloud computing environment, asset information associated with the one or more assets (108A-N) from a plurality of structured and unstructured data sources (120A-N), wherein the one or more assets (108A-N) are deployed in an industrial environment; processing, by the processor, the extracted asset information based on a first predefined set of rules comprising determining whether the extracted asset information meets a predefined requirement based on execution of one or more tests on the asset information and processing the asset information which is determined to meet the predefined requirement; generating, by the processor, a digital representation of the processed asset information based on a type of user devices (122A-N); and storing, by the processor, the generated representation of the processed asset information in a predefined file format in a database, wherein the predefined file format is compatible with a format used by the user devices (122A-N). extracting, by a processor of a cloud computing system comprised in the cloud computing environment, asset information associated with the one or more assets (108A-N) from a plurality of structured and unstructured data sources (120A-N), wherein the one or more assets (108A-N) are deployed in an industrial environment; processing, by the processor, the extracted asset information based on a first predefined set of rules comprising determining whether the extracted asset information meets a predefined requirement based on execution of one or more tests on the asset information and processing the asset information which is determined to meet the predefined requirement; generating, by the processor, a digital representation of the processed asset information based on a type of user devices (122A-N); and storing, by the processor, the generated representation of the processed asset information in a predefined file format in a database, wherein the predefined file format is compatible with a format used by the user devices (122A-N).
A method for processing a digital audio signal intended to be reproduced by an equipment including an electrodynamic loudspeaker whose whole response as a function of the electric signal applied at its terminals is defined by a set of electric, mechanical and acoustic parameters, said method comprising: a) determining an observation vector that comprises only measurements of electric parameters, with:. a measurement of the voltage at the loudspeaker terminals, and. a measurement of the current (i) through the loudspeaker; b) determining a state vector by applying voltage and current measurements to a predictive-filter estimator including a representation of a dynamic model of the loudspeaker, said predictive filter being an extended Kalman filter adapted to:. operate a prediction of the state vector, and. readjust this prediction by calculating an estimate of the voltage (U est) based on the state vector and on the current measured and comparing this estimate with the measurement of the voltage (U mes); and c) applying to the audio signal a processing that is function of the state vector, characterized in that the components of the state vector comprise: · values of linear loudspeaker-response parameters comprised in the group: electric resistance (R e) and mechanical resistance (R eq), and. polynomial coefficients of non-linear loudspeaker-response parameters in the group: force factor (Blo, Bl 1, Bl 2), equivalent stiffness (K eq0, K eq1, K eq2) and electric inductance (Le 0, Le 1, Le 2, Le 3, Le 4). a) determining an observation vector that comprises only measurements of electric parameters, with:. a measurement of the voltage at the loudspeaker terminals, and. a measurement of the current (i) through the loudspeaker;. a measurement of the voltage at the loudspeaker terminals, and. a measurement of the current (i) through the loudspeaker; b) determining a state vector by applying voltage and current measurements to a predictive-filter estimator including a representation of a dynamic model of the loudspeaker, said predictive filter being an extended Kalman filter adapted to:. operate a prediction of the state vector, and. readjust this prediction by calculating an estimate of the voltage (U est) based on the state vector and on the current measured and comparing this estimate with the measurement of the voltage (U mes); and. operate a prediction of the state vector, and. readjust this prediction by calculating an estimate of the voltage (U est) based on the state vector and on the current measured and comparing this estimate with the measurement of the voltage (U mes); and c) applying to the audio signal a processing that is function of the state vector, · values of linear loudspeaker-response parameters comprised in the group: electric resistance (R e) and mechanical resistance (R eq), and. polynomial coefficients of non-linear loudspeaker-response parameters in the group: force factor (Blo, Bl 1, Bl 2), equivalent stiffness (K eq0, K eq1, K eq2) and electric inductance (Le 0, Le 1, Le 2, Le 3, Le 4).
A sensor circuit comprising: first and second paths (301a,301b) comprising respective first and second sensing elements (R 1a,R 2a) connected between first and second supply lines; (302a, 302b) characterized by an analogue to digital converter (304, 305, 306, 307) having a differential input connected to receive a differential voltage signal (Vinn-Vinp) between the first and second sensing elements (R 1a,R 2a) and an output for providing a digital output signal (Dout) representing a difference between the first and second sensing elements, (R 1a,R 2a) the analogue to digital converter (304, 305, 306, 307) comprising: a plurality of current sources (311 0,311 1... 311 n-1,311 n) connected between the first and second supply lines, (302a, 302b) each current source (3110, 3111... 311n-1, 311n) being switchably connected to either the first or second sensing elements; (R 1a,R 2a) and control logic configured to selectively switch current from each of the current sources (3110, 3111... 311n-1, 311n) to either the first path or the second path in dependence on the differential voltage signal. (Vinn-Vinp) a plurality of current sources (311 0,311 1... 311 n-1,311 n) connected between the first and second supply lines, (302a, 302b) each current source (3110, 3111... 311n-1, 311n) being switchably connected to either the first or second sensing elements; (R 1a,R 2a) and control logic configured to selectively switch current from each of the current sources (3110, 3111... 311n-1, 311n) to either the first path or the second path in dependence on the differential voltage signal. (Vinn-Vinp)
An optical measurement device for measuring turbidity of a liquid sample by measuring scattered light scattered by the liquid sample, the optical measurement device comprising: a cell that accommodates the liquid sample; a transmitted light measurement light source arranged to irradiate the liquid sample in the cell with light for measuring transmitted light; a scattered light measurement light source arranged to irradiate the liquid sample in the cell with light for measuring scattered light; a photodetector configured to detect transmitted light of the light for measuring transmitted light and scattered light of the light for measuring scattered light; and a reflection mirror to cause the light for measuring transmitted light to be directed to the photodetector, wherein the scattered light measurement light source is configured to emit the light for measuring scattered light toward a post-reflection optical path that is an optical path of the light for transmitted light reflected by the reflection mirror and directed to the photodetector so that the light for measuring scattered light intersects the post-reflection optical path at a predetermined angle, characterized in that the reflection mirror is provided in the cell and is arranged to reflect the light for measuring transmitted light in the cell. a cell that accommodates the liquid sample; a transmitted light measurement light source arranged to irradiate the liquid sample in the cell with light for measuring transmitted light; a scattered light measurement light source arranged to irradiate the liquid sample in the cell with light for measuring scattered light; a photodetector configured to detect transmitted light of the light for measuring transmitted light and scattered light of the light for measuring scattered light; and a reflection mirror to cause the light for measuring transmitted light to be directed to the photodetector, wherein the scattered light measurement light source is configured to emit the light for measuring scattered light toward a post-reflection optical path that is an optical path of the light for transmitted light reflected by the reflection mirror and directed to the photodetector so that the light for measuring scattered light intersects the post-reflection optical path at a predetermined angle, characterized in that the reflection mirror is provided in the cell and is arranged to reflect the light for measuring transmitted light in the cell.
A contour cutter, comprising: • a central hollow, spanning a length of said contour cutter, through which a rod-like structure may be inserted; • an outer boundary substantially ovoid in shape; and • at least one blade structure which is slidingly attached to said outer boundary such that it may be raised and lowered within said contour cutter; • internal grooves in said outer boundary through which said blade structure may be slidingly displaced; and optionally • at least one hollowed housing for insertion of a second rod-like structure therethrough; • a central hollow, spanning a length of said contour cutter, through which a rod-like structure may be inserted; • an outer boundary substantially ovoid in shape; and • at least one blade structure which is slidingly attached to said outer boundary such that it may be raised and lowered within said contour cutter; • internal grooves in said outer boundary through which said blade structure may be slidingly displaced; and optionally • at least one hollowed housing for insertion of a second rod-like structure therethrough;
A fuel cell system comprising: a unit cell configured to generate electric power by an electrochemical reaction between a fuel gas supplied to an anode of the unit cell and an oxidant gas supplied to a cathode of the unit cell; a fuel cell that is formed with the unit cell; voltage measurement means configured to measure a voltage of the unit cell; power generation control means configured to restrain the power generation of the fuel cell when the voltage of the unit cell is below a predetermined threshold voltage; IR resistance measurement means configured to measure an IR resistance of the unit cell; and threshold voltage setting means configured to set the predetermined threshold voltage based on the IR resistance and a load current, wherein the threshold voltage setting means stores map data that approximates current-voltage characteristics when the fuel gas is insufficiently supplied to the anode, and sets the predetermined threshold voltage based on the voltage with respect to the load current obtained from the map data and an IR loss calculated from the IR resistance and the load current. a unit cell configured to generate electric power by an electrochemical reaction between a fuel gas supplied to an anode of the unit cell and an oxidant gas supplied to a cathode of the unit cell; a fuel cell that is formed with the unit cell; voltage measurement means configured to measure a voltage of the unit cell; power generation control means configured to restrain the power generation of the fuel cell when the voltage of the unit cell is below a predetermined threshold voltage; IR resistance measurement means configured to measure an IR resistance of the unit cell; and threshold voltage setting means configured to set the predetermined threshold voltage based on the IR resistance and a load current, wherein the threshold voltage setting means stores map data that approximates current-voltage characteristics when the fuel gas is insufficiently supplied to the anode, and sets the predetermined threshold voltage based on the voltage with respect to the load current obtained from the map data and an IR loss calculated from the IR resistance and the load current.
An active clearance control system, comprising: an actuator assembly having: a drive motor operatively connected to a gear train (92; 94), the drive motor and the gear train being rotatable about a first axis and received within an enclosure assembly; a drive gear drivably connected to the gear train, the drive gear being rotatable about a second axis that is disposed transverse to the first axis and received within the enclosure assembly; a housing extending from the enclosure assembly along the second axis, the housing having a first housing portion joined to a second housing portion, wherein the first housing portion includes a first exterior surface, a first interior first surface disposed opposite the first exterior surface, a first interior second surface disposed opposite the first exterior surface, a first extension surface that extends between respective ends of the first interior first surface and the first interior second surface, and a first end surface that extends between the first exterior surface and the first interior second surface; and a shaft having a first end operatively connected to the drive gear and a second end operatively connected to a blade outer air seal, the shaft being configured to move between an extended position and a retracted position along the second axis in response to operation of the drive motor to adjust a clearance between a tip of a blade and the blade outer air seal; wherein the shaft has a first tooth; and wherein the first interior second surface and the first extension surface partially define a groove having the first tooth partially received therein. a drive motor operatively connected to a gear train (92; 94), the drive motor and the gear train being rotatable about a first axis and received within an enclosure assembly; a drive gear drivably connected to the gear train, the drive gear being rotatable about a second axis that is disposed transverse to the first axis and received within the enclosure assembly; a housing extending from the enclosure assembly along the second axis, the housing having a first housing portion joined to a second housing portion, wherein the first housing portion includes a first exterior surface, a first interior first surface disposed opposite the first exterior surface, a first interior second surface disposed opposite the first exterior surface, a first extension surface that extends between respective ends of the first interior first surface and the first interior second surface, and a first end surface that extends between the first exterior surface and the first interior second surface; and a shaft having a first end operatively connected to the drive gear and a second end operatively connected to a blade outer air seal, the shaft being configured to move between an extended position and a retracted position along the second axis in response to operation of the drive motor to adjust a clearance between a tip of a blade and the blade outer air seal; wherein the shaft has a first tooth; and wherein the first interior second surface and the first extension surface partially define a groove having the first tooth partially received therein.
A device for communications with respiratory mask user, the device comprising: a microphone, the microphone configured to pick up speech from the respiratory mask user; a coupler configured to couple the microphone with a respiratory mask, the respiratory mask comprising: a mask portion, wherein the mask portion comprises a mask inlet; and a fluid delivery tube; and a housing, the housing comprising the microphone, a communications device and a power supply or a port to connect to the power supply; wherein the coupler comprises a tube, the tube configured for traversal of bulk air flow between the mask portion and the fluid supply tube, the coupler tube comprising: a fluid supply tube side, the fluid supply tube side configured for attachment to the fluid supply tube; and a mask inlet side, the mask inlet side configured for attachment to the mask inlet; and wherein the microphone is positioned in close proximity to the interior fluid airspace of the coupler tube, and wherein the microphone is shielded from the interior fluid airspace of the coupler tube. a microphone, the microphone configured to pick up speech from the respiratory mask user; a coupler configured to couple the microphone with a respiratory mask, the respiratory mask comprising: a mask portion, wherein the mask portion comprises a mask inlet; and a fluid delivery tube; and a mask portion, wherein the mask portion comprises a mask inlet; and a fluid delivery tube; and a housing, the housing comprising the microphone, a communications device and a power supply or a port to connect to the power supply; the coupler comprises a tube, the tube configured for traversal of bulk air flow between the mask portion and the fluid supply tube, the coupler tube comprising: a fluid supply tube side, the fluid supply tube side configured for attachment to the fluid supply tube; and a mask inlet side, the mask inlet side configured for attachment to the mask inlet; and wherein the microphone is positioned in close proximity to the interior fluid airspace of the coupler tube, and wherein the microphone is shielded from the interior fluid airspace of the coupler tube. a fluid supply tube side, the fluid supply tube side configured for attachment to the fluid supply tube; and a mask inlet side, the mask inlet side configured for attachment to the mask inlet; and wherein the microphone is positioned in close proximity to the interior fluid airspace of the coupler tube, and wherein the microphone is shielded from the interior fluid airspace of the coupler tube.