mhurhangee/ep-ind-claims huggingface dataset:
An image processing apparatus capable of communicating with an external apparatus via a network, the image processing apparatus comprising: receiving means for receiving image data; registering means for registering a transfer setting containing an ID for identifying destination information to transfer the image data received by the receiving means; acquisition means (218, 210) for acquiring the destination information corresponding to the ID contained in the transfer setting registered by the registering means; and transfer means for transferring the image data received by the receiving means using the destination information acquired by the acquisition means; characterized in that the acquisition means acquires the destination information via the network from the external apparatus; and by control means for invalidating the transfer setting registered by the registering means in a case where the acquisition means (218, 210) cannot acquire the destination information due to the fact that no destination information corresponding to the ID is stored in the external apparatus, wherein the control means does not invalidate the transfer setting registered by the registering means in a case where the acquisition means (218, 210) cannot acquire the destination information due to a communication error with the external apparatus. receiving means for receiving image data; registering means for registering a transfer setting containing an ID for identifying destination information to transfer the image data received by the receiving means; acquisition means (218, 210) for acquiring the destination information corresponding to the ID contained in the transfer setting registered by the registering means; and transfer means for transferring the image data received by the receiving means using the destination information acquired by the acquisition means; characterized in that the acquisition means acquires the destination information via the network from the external apparatus; and by control means for invalidating the transfer setting registered by the registering means in a case where the acquisition means (218, 210) cannot acquire the destination information due to the fact that no destination information corresponding to the ID is stored in the external apparatus, wherein the control means does not invalidate the transfer setting registered by the registering means in a case where the acquisition means (218, 210) cannot acquire the destination information due to a communication error with the external apparatus.
A method for characterizing a hydrocarbon content of a reformate sample stream, the method comprising: (a) withdrawing the reformate sample stream from a steam-hydrocarbon reforming process, the reformate sample stream comprising CH 4, H 2 O, CO, NH 3, and H 2; (b) cooling the reformate sample stream in a first heat exchanger to condense a portion of the H 2 O in the reformate sample stream thereby forming a liquid fraction and a vapor fraction; (c) dividing the reformate sample stream from step (b) into a vapor fraction-enriched stream having a time-averaged mass flow rate, F 1, and a liquid fraction-enriched stream having a time-averaged mass flow rate, F 2; (d) cooling the vapor fraction-enriched stream to within a temperature ranging from 0°C to 10°C or ranging from 2°C to 7°C to condense H 2 O in the vapor fraction-enriched stream; (e) removing at least a portion of the condensed H 2 O from the vapor fraction-enriched stream from step (d); (f) passing the vapor fraction-enriched stream from step (e) to an ammonia removal unit to remove NH 3 from the vapor fraction-enriched stream; and (g) passing at least a first portion of the vapor fraction-enriched stream from step (f) to a chemical component analyzer to measure the hydrocarbon content in the at least a first portion of the vapor fraction-enriched stream. (a) withdrawing the reformate sample stream from a steam-hydrocarbon reforming process, the reformate sample stream comprising CH 4, H 2 O, CO, NH 3, and H 2; (b) cooling the reformate sample stream in a first heat exchanger to condense a portion of the H 2 O in the reformate sample stream thereby forming a liquid fraction and a vapor fraction; (c) dividing the reformate sample stream from step (b) into a vapor fraction-enriched stream having a time-averaged mass flow rate, F 1, and a liquid fraction-enriched stream having a time-averaged mass flow rate, F 2; (d) cooling the vapor fraction-enriched stream to within a temperature ranging from 0°C to 10°C or ranging from 2°C to 7°C to condense H 2 O in the vapor fraction-enriched stream; (e) removing at least a portion of the condensed H 2 O from the vapor fraction-enriched stream from step (d); (f) passing the vapor fraction-enriched stream from step (e) to an ammonia removal unit to remove NH 3 from the vapor fraction-enriched stream; and (g) passing at least a first portion of the vapor fraction-enriched stream from step (f) to a chemical component analyzer to measure the hydrocarbon content in the at least a first portion of the vapor fraction-enriched stream.
A method of restoring a wheel to compliance, the wheel having a plurality of ovalized bores, the method being characterized in that it includes at least a step of boring a first ovalized bore with the help of a reamer presenting a longitudinal pilot portion and a longitudinal cutter portion, the cutter portion presenting teeth defining a cutting diameter, and the pilot portion presenting a pilot diameter strictly less than the cutting diameter, the step of boring this first ovalized bore consisting in inserting the reamer into the first ovalized bore, beginning with the pilot portion and followed by the cutter portion, the pilot diameter being such that it enables the reamer to be guided in translation inside the first ovalized bore for boring.
A safety lighting comprising a power supply module, including one or more power accumulators, and a casing provided with a rear wall intended to be secured on a mounting surface and a side wall having a closed outline delimiting a frontal opening opposite to said rear wall, said casing including an internal space in which is mounted a standby lighting module and at least a first emergency lighting module intended to emit a luminous flow leaving the lighting in a main direction, said lighting comprising a switching module including a first input intended to be connected to a supplying source external to the lighting, a second input connected to the power supply module and a first and a second outputs (S1, S2) intended to be connected to the standby lighting module and to the first emergency lighting module respectively, said switching module being intended to connect its first input with its first output to activate said standby lighting module in a first operating state and its second input with its second output to activate said first emergency lighting module in a second operating state, said switching module switching from the first operating state to said second operating state in the event of a failure of said external supplying source, characterized in that said switching module comprises a secondary switching module SW1 including an input connected to the second output of the switching module and first and second outputs (S10, S20) intended to be respectively connected to the first emergency lighting module and to a second emergency lighting module arranged in said casing and intended to emit a luminous flow leaving the lighting in a direction different from said main direction, to selectively connect the first and/or the second emergency lighting module (50, 60) to said power supply module within said second operating state, the secondary switching module SW1 comprises a manually operable control unit, making it possible to select the desired emergency lighting configuration according to the lighting installation arrangement.
Pressure hose for a water-carrying system for connecting sanitary fittings, having a preferably corrugated inner hose made of plastic, at least one hose end (3, 5) of the pressure hose being provided with a connecting piece (4, 6), which is formed differently from the inner hose, for connecting the pressure hose to a complementarily formed connection piece of a sanitary tap for fitting, characterized in that the inner hose and the connection piece (4, 6) are formed in one piece and are produced by extrusion in a common extrusion process.
A method of fabricating a wafer of group III nitride comprising (a) growing a bulk crystal of group III nitride, (b) slicing the bulk crystal into wafers, (c) polishing at least one surface of a wafer selected from said wafers until the wafer shows at least one x-ray diffraction peak for an incident beam at an angle less than 15 degrees to the surface; wherein the wafer has a surface (a) oriented with c-plane or (b) misoriented from the c-plane, and wherein said surface misorientation is within +/- 10 degrees; wherein the x-ray diffraction peak is from 114 plane of the group III nitride crystal; and wherein the peak intensity of the diffraction peak from 114 plane is more than 1/100 of the peak intensity of the diffraction peak from 002 plane. wherein the wafer has a surface (a) oriented with c-plane or (b) misoriented from the c-plane, and wherein said surface misorientation is within +/- 10 degrees; wherein the x-ray diffraction peak is from 114 plane of the group III nitride crystal; and wherein the peak intensity of the diffraction peak from 114 plane is more than 1/100 of the peak intensity of the diffraction peak from 002 plane.
A coupling for a break-away valve assembly comprising a coupling and an adapter, said coupling comprising: a main flow valve arranged in an annular body, the annular body having a valve seat comprising a first portion and a second portion, the second portion being adjacent to the first portion and of greater internal diameter relative to the first portion, the main flow valve being biased in a first direction to seal against the valve seat on disconnection of the coupling from the adapter, characterised in that the main flow valve is biased in a second direction, and in that main flow valve is adapted to extend past the first portion into the second portion of the valve seat to release a volume of fluid if the pressure acting on the main flow valve exceeds a predetermined surge pressure threshold and in that the coupling is adapted such that the volume of fluid released occurs via a space between the main flow valve and the internal wall of the annular body. a main flow valve arranged in an annular body, the annular body having a valve seat comprising a first portion and a second portion, the second portion being adjacent to the first portion and of greater internal diameter relative to the first portion, the main flow valve being biased in a first direction to seal against the valve seat on disconnection of the coupling from the adapter, characterised in that the main flow valve is biased in a second direction, and in that main flow valve is adapted to extend past the first portion into the second portion of the valve seat to release a volume of fluid if the pressure acting on the main flow valve exceeds a predetermined surge pressure threshold and in that the coupling is adapted such that the volume of fluid released occurs via a space between the main flow valve and the internal wall of the annular body.
Microtome having a knife holding device for a cutting blade and having an object holding device for an object to be cut thinly, wherein the object holding device has a first drive device for carrying out a cutting movement, and the object holding device or the knife holding device has a second drive device for carrying out a feed movement, wherein a electronic control system and an operating device for the first and the second drive device (22, 36) is allocated to the first and the second drive device (22, 36), wherein the operating device allocated to the electronic control system for the first and the second drive device (22, 36) has an operating element, characterised in that the microtome has only one operating element forming the operating device, said operating element being actuatable in different modes in order to enable a one-handed operation, the operating element forms a so-called universal operating element being actuatable in the different modes in order to control both the vertical cutting movement of the object holding device and the horizontal feed movement of the object holding device or the knife holding device, and the operating element - is actuatable in a shifting/tilting and rotation mode, or - is actuatable in a rotation and pushing mode, or - is actuatable in a shifting/tilting and pressing mode, or - is actuatable in a shifting/tilting, rotation and pressing mode. - is actuatable in a shifting/tilting and rotation mode, or - is actuatable in a rotation and pushing mode, or - is actuatable in a shifting/tilting and pressing mode, or - is actuatable in a shifting/tilting, rotation and pressing mode.
An in vitro method for assessing chronic obstructive pulmonary disease (COPD) in a human subject, comprising a) determining the concentration of protein ARMET in a serum, plasma, or whole blood sample, and b) comparing the concentration of protein ARMET determined in step (a) with a reference concentration of protein ARMET, wherein a concentration of protein ARMET above a reference concentration is indicative for COPD. a) determining the concentration of protein ARMET in a serum, plasma, or whole blood sample, and b) comparing the concentration of protein ARMET determined in step (a) with a reference concentration of protein ARMET, wherein a concentration of protein ARMET above a reference concentration is indicative for COPD.
Electrophotographic roller arrangement (1; 101; 201), comprising two rollers (2, 3; 102, 103; 202, 203), one of the rollers (3;103;203) having a resilient outer layer (10; 110; 210) extending substantially the length thereof, a nip (4; 104; 204) between the rollers (2, 3; 102, 103; 202, 203), and a substance feed arrangement for feeding substance to the nip (4; 104; 204), wherein the rollers (2, 3; 102, 103; 202, 203) are arranged to spread the substance along the nip (4; 104; 204), a respective coned portion (6; 106; 206) is provided at each end of one of the rollers (2;102;203) near an end of the nip (4; 104; 204), wherein the roller (2;102;203) has a substantially cylindrical shape along the nip (4; 104; 204) between said coned portions (6; 106; 206), and the other one of the rollers (3; 103; 203) has a substantially cylindrical shape along the nip (4; 104; 204), characterized in that the coned portions (6; 106; 206) are arranged to provide additional pressure on end portions (11; 111; 211) of the resilient outer layer (10; 110; 210) such that a relatively equal pressure is exerted onto the substance by the rollers (2, 3; 102, 103; 202, 203) along the length of the nip (4; 104; 204), compensating for the increased deformation that takes place at the end portions (11; 111; 211) of the resilient outer layer (10; 110; 210).
A process for fermenting a CO-containing gaseous substrate, the process comprising fermenting the CO-containing gaseous substrate in a fermentation medium, the process being effective for providing a specific STY (space time yield) of at least 1 gram of ethanol/(L·day·gram cells), wherein the fermentation medium has less than 1 ppm selenium, and wherein the selenium level in biomass exiting the fermentation is from 0.01 to 1 ppm, and further wherein the CO-containing substrate provided to the fermentor has an H 2 to CO molar ratio of 0.2 or more.
A method for adjusting spatial congruency in a video conference, the method comprising: unwarping a visual scene captured by a video endpoint device into at least one rectilinear scene, the video endpoint device being configured to capture the visual scene in an omnidirectional manner; detecting spatial congruency between the at least one rectilinear scene and an auditory scene captured by an audio endpoint device that is positioned in relation to the video endpoint device, the spatial congruency being a degree of alignment between the auditory scene and the at least one rectilinear scene; and in response to the detected spatial congruency being below a predefined threshold, adjusting the spatial congruency, wherein unwarping the visual scene comprises: assigning a nominal original direction of the captured visual scene; and unwarping the captured visual scene into two rectilinear scenes split from the nominal original direction and from an opposite direction with regard to the nominal original direction. unwarping a visual scene captured by a video endpoint device into at least one rectilinear scene, the video endpoint device being configured to capture the visual scene in an omnidirectional manner; detecting spatial congruency between the at least one rectilinear scene and an auditory scene captured by an audio endpoint device that is positioned in relation to the video endpoint device, the spatial congruency being a degree of alignment between the auditory scene and the at least one rectilinear scene; and in response to the detected spatial congruency being below a predefined threshold, adjusting the spatial congruency, wherein unwarping the visual scene comprises: assigning a nominal original direction of the captured visual scene; and unwarping the captured visual scene into two rectilinear scenes split from the nominal original direction and from an opposite direction with regard to the nominal original direction. assigning a nominal original direction of the captured visual scene; and unwarping the captured visual scene into two rectilinear scenes split from the nominal original direction and from an opposite direction with regard to the nominal original direction.
A rack-and-pinion steering, comprising a toothed rack having a longitudinal axis, a toothed rack housing in which the toothed rack is guided for axial displacement between two end stops, and an end stop damping assembly which includes at least one stop ring (34, 36) and at least one elastic compression body, the compression body surrounding the toothed rack, and its spring/damping section having an axial length (x 1) in a non-loaded condition, the stop ring (34, 36) having a continuously surrounding axial guide extension which is located radially inside in relation to the compression body and has an axial length (x 2), the axial length (x 2) of the guide extension being smaller than the axial length (x 1) of the spring/damping section of the compression body, characterized in that at least one axial attachment extension (54, 58) for the at least one stop ring (34, 36) is formed on the compression body.
Cover arrangement for a sensor component, comprising a sensor housing portion and comprising a cover, wherein the sensor housing portion has a lug portion (16a, b), wherein the lug portion (16a, b) has a ramp surface (17a, b), wherein the cover has a lug receptacle (19a, b), wherein the lug portion (16a, b) is arranged in the lug receptacle (19a, b), wherein the cover has a clamping tab (22a, b), wherein the clamping tab (22a, b) preloads the cover in a disassembly direction in such a way that the cover is pressed in the disassembly direction, and wherein the lug receptacle (19a, b) bears in a positively locking manner against the lug portion (16 a, b) in the disassembly direction, characterized in that the clamping tab (22a, b) lies on this ramp surface (17a, b) of the lug portion (16a, b). comprising a sensor housing portion and comprising a cover, wherein the sensor housing portion has a lug portion (16a, b), wherein the lug portion (16a, b) has a ramp surface (17a, b), wherein the cover has a lug receptacle (19a, b), wherein the lug portion (16a, b) is arranged in the lug receptacle (19a, b), wherein the cover has a clamping tab (22a, b), wherein the clamping tab (22a, b) preloads the cover in a disassembly direction in such a way that the cover is pressed in the disassembly direction, and wherein the lug receptacle (19a, b) bears in a positively locking manner against the lug portion (16 a, b) in the disassembly direction, characterized in that the clamping tab (22a, b) lies on this ramp surface (17a, b) of the lug portion (16a, b).
A robotic gripping device, comprising: a palm; a plurality of digits (804, 806) coupled to the palm; a time-of-flight sensor arranged on the palm such that the time-of-flight sensor is configured to generate time-of-flight distance data in a direction between the plurality of digits; and characterized in that the robotic gripping device further comprises an infrared camera, comprising an infrared illumination source, wherein the infrared camera is arranged on the palm such that the infrared camera is configured to generate grayscale image data in the direction between the plurality of digits. a palm; a plurality of digits (804, 806) coupled to the palm; a time-of-flight sensor arranged on the palm such that the time-of-flight sensor is configured to generate time-of-flight distance data in a direction between the plurality of digits; and characterized in that the robotic gripping device further comprises an infrared camera, comprising an infrared illumination source, wherein the infrared camera is arranged on the palm such that the infrared camera is configured to generate grayscale image data in the direction between the plurality of digits.