mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method performed by a data processing apparatus, the method comprising: receiving, at an emulation system from a system in a virtual private cloud, an Application Programming Interface request comprising an indication of an endpoint associated with a target region of a cloud computing service; extracting one or more attributes from the API request; generating a manipulated API request from the extracted one or more attributes of the API request, wherein the manipulated API request comprises an indication of an endpoint located in a standard region of the cloud computing service; transmitting the manipulated API request to the endpoint located in the standard region of the cloud computing service; and characterized by: receiving, at the emulation system, an API request response comprising an indication of an endpoint located in the standard region of the cloud computing service; extracting one or more attributes from the API request response; generating a manipulated API request response from the extracted one or more attributes of the API request response, wherein the manipulated API request response comprises an indication of an endpoint located in the target region of a cloud computing service; and transmitting the manipulated API request response to the system in the virtual private cloud. receiving, at an emulation system from a system in a virtual private cloud, an Application Programming Interface request comprising an indication of an endpoint associated with a target region of a cloud computing service; extracting one or more attributes from the API request; generating a manipulated API request from the extracted one or more attributes of the API request, wherein the manipulated API request comprises an indication of an endpoint located in a standard region of the cloud computing service; transmitting the manipulated API request to the endpoint located in the standard region of the cloud computing service; and characterized by: receiving, at the emulation system, an API request response comprising an indication of an endpoint located in the standard region of the cloud computing service; extracting one or more attributes from the API request response; generating a manipulated API request response from the extracted one or more attributes of the API request response, wherein the manipulated API request response comprises an indication of an endpoint located in the target region of a cloud computing service; and transmitting the manipulated API request response to the system in the virtual private cloud. receiving, at the emulation system, an API request response comprising an indication of an endpoint located in the standard region of the cloud computing service; extracting one or more attributes from the API request response; generating a manipulated API request response from the extracted one or more attributes of the API request response, wherein the manipulated API request response comprises an indication of an endpoint located in the target region of a cloud computing service; and transmitting the manipulated API request response to the system in the virtual private cloud.
An endoscope apparatus, comprising: a shaft component having a proximal end and a distal end for insertion into a cavity, wherein the shaft component is arranged in an outer shaft or is provided and designed for arrangement in an outer shaft; an image capture device having an objective lens for generating a real image and an image sensor for capturing the real image and for generating an image signal which represents the captured real image, wherein the image capture device is arranged at the distal end of the shaft component; a pivot joint device (62; 72) which couples the image capture device to the shaft component in a manner pivotable about two orthogonal axes but rigid in respect of a rotation about the longitudinal axis of the shaft component; characterized by a pivot control device (46, 64; 80, 84) which is configured to set a pivot position of the image capture device relative to the shaft component depending on a rotational position of the outer shaft relative to the image capture device and the shaft component. a shaft component having a proximal end and a distal end for insertion into a cavity, wherein the shaft component is arranged in an outer shaft or is provided and designed for arrangement in an outer shaft; an image capture device having an objective lens for generating a real image and an image sensor for capturing the real image and for generating an image signal which represents the captured real image, wherein the image capture device is arranged at the distal end of the shaft component; a pivot joint device (62; 72) which couples the image capture device to the shaft component in a manner pivotable about two orthogonal axes but rigid in respect of a rotation about the longitudinal axis of the shaft component; characterized by a pivot control device (46, 64; 80, 84) which is configured to set a pivot position of the image capture device relative to the shaft component depending on a rotational position of the outer shaft relative to the image capture device and the shaft component.
Method (S1-S11) for operating a food treatment device having a food treatment chamber, wherein - a first number of activated food treatment modes of a first type is counted, said modes satisfying at least one first boundary condition, - a second number of activated food treatment modes of a second type is counted, said modes satisfying at least one second boundary condition which differs from the at least one first boundary condition, and - whenever a formation of quotients of the first number and the second number satisfies a predetermined criterion (S6, S7) at least one cleaning action is triggered by the food treatment device and wherein - the food treatment modes counted by means of the first number comprise soiling-promoting food treatment modes and - the food treatment modes counted by means of the second number comprise soiling-reducing food treatment modes. - a first number of activated food treatment modes of a first type is counted, said modes satisfying at least one first boundary condition, - a second number of activated food treatment modes of a second type is counted, said modes satisfying at least one second boundary condition which differs from the at least one first boundary condition, and - whenever a formation of quotients of the first number and the second number satisfies a predetermined criterion (S6, S7) at least one cleaning action is triggered by the food treatment device and wherein - the food treatment modes counted by means of the first number comprise soiling-promoting food treatment modes and - the food treatment modes counted by means of the second number comprise soiling-reducing food treatment modes.
A fluid transfer device comprising: a body comprising; a stationary section having a first end containing a first opening; a rotating section engaged with the stationary section and having a second end containing a second opening; and an elongate passage extending through the stationary section and rotating section connecting the first and second openings and having a proximal end and a distal end; a longitudinally displaceable plunger disposed in and extending along the passage, the plunger having a proximal end and a distal end and having a first position displaced toward the distal end of the passage and a second position displaced toward the proximal end of the passage; at least one diaphragm seal mounted on the plunger to form a fluid tight seal between the plunger and the passage, the diaphragm seal being attached to the proximal end of the plunger and sealing the passage at the proximal end thereof; a gland seal sealing the passage at a location intermediate the diaphragm seal and the distal end of the passage; a fluid transfer opening in the plunger between the proximal end of the plunger and the distal end of the plunger; wherein the body is configured such that rotation of the rotating section engages the stationary section and the plunger, causing longitudinal displacement of the plunger relative to the rotating section; longitudinal displacement of the plunger opening the passage to form a fluid pathway from an upstream component to a downstream component through the fluid transfer opening and a channel in the interior of the plunger. a body comprising; a stationary section having a first end containing a first opening; a rotating section engaged with the stationary section and having a second end containing a second opening; and an elongate passage extending through the stationary section and rotating section connecting the first and second openings and having a proximal end and a distal end; a longitudinally displaceable plunger disposed in and extending along the passage, the plunger having a proximal end and a distal end and having a first position displaced toward the distal end of the passage and a second position displaced toward the proximal end of the passage; at least one diaphragm seal mounted on the plunger to form a fluid tight seal between the plunger and the passage, the diaphragm seal being attached to the proximal end of the plunger and sealing the passage at the proximal end thereof; a gland seal sealing the passage at a location intermediate the diaphragm seal and the distal end of the passage; a fluid transfer opening in the plunger between the proximal end of the plunger and the distal end of the plunger; wherein the body is configured such that rotation of the rotating section engages the stationary section and the plunger, causing longitudinal displacement of the plunger relative to the rotating section; longitudinal displacement of the plunger opening the passage to form a fluid pathway from an upstream component to a downstream component through the fluid transfer opening and a channel in the interior of the plunger.
A needleless injection device including: - a body - a gas generator - an injection system which extends axially along an injection axis and which comprises at least, from upstream to downstream in the injection direction, one piston (32, 34), a reservoir containing an active ingredient, an injection nozzle which delimits at least one injection channel, - a cover which houses the body of the device, - a removable cap adapted to protect a lower downstream end of the injection nozzle, - a plug which houses the cap and which is pivotally mounted about the injection axis between a closed position in which the plug is locked on the injection device and an open position in which the plug is unlocked from the injection device, characterized in that the device includes a blocking element which is radially interposed between the cap and the plug, said blocking element being designed to frictionally block relative pivoting of the cap and the plug about the injection axis during the driving of the plug in pivoting. - a body - a gas generator - an injection system which extends axially along an injection axis and which comprises at least, from upstream to downstream in the injection direction, one piston (32, 34), a reservoir containing an active ingredient, an injection nozzle which delimits at least one injection channel, - a cover which houses the body of the device, - a removable cap adapted to protect a lower downstream end of the injection nozzle, - a plug which houses the cap and which is pivotally mounted about the injection axis between a closed position in which the plug is locked on the injection device and an open position in which the plug is unlocked from the injection device, characterized in that the device includes a blocking element which is radially interposed between the cap and the plug, said blocking element being designed to frictionally block relative pivoting of the cap and the plug about the injection axis during the driving of the plug in pivoting.
Power transmission cable (10; 20; 30) comprising a metal conductor (1; 21; 31), an electric insulation system (2; 22; 32) surrounding the conductor coaxially and radially outwards of the conductor, and a protection system surrounding the insulation system coaxially and radially outwards of the insulation system, wherein the insulation system (2; 22; 32) comprises an inner semi-conducting layer (4; 24; 34) surrounded coaxially and radially outwards by an insulation layer (5; 25; 35), and the insulation layer is optionally surrounded coaxially and radially outwards by an outer semi-conducting layer (26, 36), wherein the protection system comprises a moisture barrier arrangement (3; 23; 33) surrounding the insulation system coaxially and radially outwards of the insulation system, wherein the inner semi-conducting layer, the insulation layer and the optional outer semi-conducting layer of the insulation system are paper-based characterized in that the moisture barrier arrangement (3; 23; 33) comprises an independently applicable first layer (7; 27; 37), acting as an initial moisture barrier layer, and an independently applicable second layer (8; 28; 38), acting as a permanent moisture barrier the first layer (7; 27; 37) being an extruded plastic material layer and arranged in direct contact with the insulation system (2; 22; 32), and the second layer (8; 28; 38) being a metallic material layer and arranged in contact with the first layer (7; 27; 37), wherein the extrudable plastic material in the first layer (7; 27; 37) of the moisture barrier arrangement (3; 23; 33) is semi-conducting and a lipophobic polymer, wherein the paper-based insulation system is impregnated with a dielectric fluid.
Method for using a wide band optical gate in the terahertz domain (wavelengths in the far infrared), comprising a first optical source emitting a first beam (FTHz) formed of pulses in the said terahertz domain, a first plate made of a semiconducting material illuminated by said first beam, and a second optical source emitting a second beam formed of pulses at a wavelength capable of saturating the first plate made of a semiconducting material and making it reflective at terahertz wavelengths, characterized in that the pulses (FIR1, FIR2) of the second beam are delayed by a variable time with respect to pulses (THz1, THz2, THz3) in the first beam, the pulses of the first beam and the pulses of the second beam are repeated in time and the delays of the pulse at the second beam with respect to the pulse of the first beam is varied from one pulse to the other.
Apparatus for encoding digital images, comprising - input means configured for acquiring at least a portion of an image (f) from a source, - output means configured for outputting at least a portion of an encoded image to a destination, - processing means configured for a) reading at least a portion of said image (f), characterised in that said processing means are configured for b) segmenting the portion of said image (f) in order to obtain one or more superpixels (P i), wherein each of said superpixels defines a connected, homogeneous image region of arbitrary shape, is individuated by borders information (P bi), and contains pixels having a predetermined level of similarity according to at least one similarity metrics, c) operating, individually for each superpixel (P i), a graph transform for obtaining graph transform coefficients (f^ i) on the basis of the pixels forming said superpixel (P i), d) outputting, by means of the output means, the borders information (P bi) and the graph transform coefficients (f^ i) of each superpixel (P i) to said destination. - input means configured for acquiring at least a portion of an image (f) from a source, - output means configured for outputting at least a portion of an encoded image to a destination, - processing means configured for a) reading at least a portion of said image (f), characterised in that said processing means are configured for b) segmenting the portion of said image (f) in order to obtain one or more superpixels (P i), wherein each of said superpixels defines a connected, homogeneous image region of arbitrary shape, is individuated by borders information (P bi), and contains pixels having a predetermined level of similarity according to at least one similarity metrics, c) operating, individually for each superpixel (P i), a graph transform for obtaining graph transform coefficients (f^ i) on the basis of the pixels forming said superpixel (P i), d) outputting, by means of the output means, the borders information (P bi) and the graph transform coefficients (f^ i) of each superpixel (P i) to said destination. a) reading at least a portion of said image (f), characterised in that said processing means are configured for b) segmenting the portion of said image (f) in order to obtain one or more superpixels (P i), wherein each of said superpixels defines a connected, homogeneous image region of arbitrary shape, is individuated by borders information (P bi), and contains pixels having a predetermined level of similarity according to at least one similarity metrics, c) operating, individually for each superpixel (P i), a graph transform for obtaining graph transform coefficients (f^ i) on the basis of the pixels forming said superpixel (P i), d) outputting, by means of the output means, the borders information (P bi) and the graph transform coefficients (f^ i) of each superpixel (P i) to said destination.
A filter abnormality determination system comprising: a filter disposed in an exhaust gas passage of an internal combustion engine, the filter being configured to capture particulate matter in exhaust gas; a sensor including a sensor element in a body of the sensor, the sensor being configured to introduce a part of exhaust gas flowing in the exhaust gas passage downstream of the filter into the body, the sensor element being configured to output a value relevant to an accumulated amount of particulate matter on the sensor element; and an electronic control unit comprising means to a) perform filter abnormality determination based on the output of the sensor, b) estimate the accumulated amount of particulate matter on the sensor element, c) determine a performing timing of the abnormality determination based on the amount of particulate matter, and d) adjust the performing timing of the abnormality determination depending on a variation of an exhaust gas flow rate per unit time in the exhaust gas passage in which the sensor is disposed. a filter disposed in an exhaust gas passage of an internal combustion engine, the filter being configured to capture particulate matter in exhaust gas; a sensor including a sensor element in a body of the sensor, the sensor being configured to introduce a part of exhaust gas flowing in the exhaust gas passage downstream of the filter into the body, the sensor element being configured to output a value relevant to an accumulated amount of particulate matter on the sensor element; and an electronic control unit comprising means to a) perform filter abnormality determination based on the output of the sensor, b) estimate the accumulated amount of particulate matter on the sensor element, c) determine a performing timing of the abnormality determination based on the amount of particulate matter, and d) adjust the performing timing of the abnormality determination depending on a variation of an exhaust gas flow rate per unit time in the exhaust gas passage in which the sensor is disposed. a) perform filter abnormality determination based on the output of the sensor, b) estimate the accumulated amount of particulate matter on the sensor element, c) determine a performing timing of the abnormality determination based on the amount of particulate matter, and d) adjust the performing timing of the abnormality determination depending on a variation of an exhaust gas flow rate per unit time in the exhaust gas passage in which the sensor is disposed.
A method for controlling an injection molding process based upon an actual plastic melt pressure, the method comprising: injecting molten thermoplastic material into a mold cavity during a baseline cycle; measuring, using a sensor in or near a nozzle, a pressure of the molten thermoplastic material during the baseline cycle; tracking, by a controller, the measured pressure of the molten thermoplastic material over time during the baseline cycle; identifying, by the controller (140, an optimal actual plastic melt pressure curve over time based on the baseline cycle; injecting molten thermoplastic material into the mold cavity during a subsequent cycle; monitoring, using the sensor in or near the nozzle, the pressure of the molten thermoplastic material during the subsequent cycle; and adjusting in real time or in near-real time, by the controller, an injection pressure in order to cause the monitored pressure of the molten thermoplastic material during the subsequent cycle to follow the optimal actual plastic melt pressure curve over time. injecting molten thermoplastic material into a mold cavity during a baseline cycle; measuring, using a sensor in or near a nozzle, a pressure of the molten thermoplastic material during the baseline cycle; tracking, by a controller, the measured pressure of the molten thermoplastic material over time during the baseline cycle; identifying, by the controller (140, an optimal actual plastic melt pressure curve over time based on the baseline cycle; injecting molten thermoplastic material into the mold cavity during a subsequent cycle; monitoring, using the sensor in or near the nozzle, the pressure of the molten thermoplastic material during the subsequent cycle; and adjusting in real time or in near-real time, by the controller, an injection pressure in order to cause the monitored pressure of the molten thermoplastic material during the subsequent cycle to follow the optimal actual plastic melt pressure curve over time.