mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for determining NO x concentration of an exhaust gas, the apparatus comprising; an input assembly capable of receiving the exhaust gas and producing a conditioned output gas, the input assembly including the following four stages: a first stage including a first catalyst structure for converting NH 3 in the exhaust gas to N 2 and H 2 O; a second stage including a second catalyst structure having an absorbent material for absorbing SO 2 or H 2 S from the exhaust gas; a third stage including a third catalyst structure for oxidizing unburned hydrocarbons and gases to higher oxidation states; and, a fourth stage including a fourth catalyst structure for establishing a steady state equilibrium concentration ratio between NO and NO 2; and, a NO x sensor operably connected to the input assembly and receiving the conditioned output gas of the input assembly wherein the concentration of the total NO x present can be determined. a first stage including a first catalyst structure for converting NH 3 in the exhaust gas to N 2 and H 2 O; a second stage including a second catalyst structure having an absorbent material for absorbing SO 2 or H 2 S from the exhaust gas; a third stage including a third catalyst structure for oxidizing unburned hydrocarbons and gases to higher oxidation states; and, a fourth stage including a fourth catalyst structure for establishing a steady state equilibrium concentration ratio between NO and NO 2; and,
A receiver, Rx, digital signal processor, DSP, in an optical receiver, the Rx DSP comprises circuitry configured to: detect traffic is interrupted on a current link associated with the optical receiver, enter a holdoff period where no loss of signal, LOS, or loss of light, LOL, is reported while an optical signal associated with the traffic i) is switched to a new link or ii) recovers from disruption on the current link, and one of i) receive traffic during the holdoff period or ii) have the holdoff period expire that a) causes a notification to a host device and b) retrain the Rx DSP to acquire the optical signal to receive the traffic on the new link or the current link, wherein the Rx DSP is retrained to determine various settings on the optical receiver. detect traffic is interrupted on a current link associated with the optical receiver, enter a holdoff period where no loss of signal, LOS, or loss of light, LOL, is reported while an optical signal associated with the traffic i) is switched to a new link or ii) recovers from disruption on the current link, and one of i) receive traffic during the holdoff period or ii) have the holdoff period expire that a) causes a notification to a host device and b) retrain the Rx DSP to acquire the optical signal to receive the traffic on the new link or the current link, wherein the Rx DSP is retrained to determine various settings on the optical receiver.
An ultrasonic diagnostic apparatus, comprising: a body; a movement unit movably connected to the body comprising at least one of a display or a control panel; a first connecting member and a second connecting member each having a first end unit (112,122) rotatably coupled to the body so as to be movable in leftward and rightward directions (y, -y) of the body and a second end unit (114,124) rotatably coupled to the movement unit so as to be movable in the leftward and rightward directions (y, -y) of the body; and a first rail installed on the movement unit such that the second end unit of the first connecting member is slidingly movable in forward and backward directions (x, -x) of the body, and a second rail installed at the movement unit such that the second end unit of the second connecting member is slidingly movable in forward and backward directions (x, -x) of the body, and wherein when a distance that the second end unit of the first connecting member slides along the first rail and a distance that the second end unit of the second connecting member slides along the second rail are different from each other, an angle between the first connecting member and the first rail and an angle between the second connecting member and the second rail are different from each other. a body; a movement unit movably connected to the body comprising at least one of a display or a control panel; a first connecting member and a second connecting member each having a first end unit (112,122) rotatably coupled to the body so as to be movable in leftward and rightward directions (y, -y) of the body and a second end unit (114,124) rotatably coupled to the movement unit so as to be movable in the leftward and rightward directions (y, -y) of the body; and a first rail installed on the movement unit such that the second end unit of the first connecting member is slidingly movable in forward and backward directions (x, -x) of the body, and a second rail installed at the movement unit such that the second end unit of the second connecting member is slidingly movable in forward and backward directions (x, -x) of the body, and wherein when a distance that the second end unit of the first connecting member slides along the first rail and a distance that the second end unit of the second connecting member slides along the second rail are different from each other, an angle between the first connecting member and the first rail and an angle between the second connecting member and the second rail are different from each other.
An apparatus for investigating naphtha reforming, the apparatus comprising: a plurality of reactors arranged in parallel with reaction chambers (R1, R2, ···), the individual reactors having a catalyst capacity in the range from 0.5 to 200 ccm, a reactant fluid supply common to two or more of these reactors, a process control, an analysis unit, where each individual reactor is equipped with an individually controllable heating device and has an outlet line for product fluid stream, wherein the analysis unit is operatively connected to each said outlet line for product stream, and wherein the analysis unit is functionally associated with the control of the apparatus, where the analysis unit is suitable for analyzing a gaseous product fluid stream, and the analysis unit together with the process control allow the determination and optimization of an octane number in the reactors arranged in parallel, where the analysis unit is a gas chromatograph or the gaseous product fluid stream is characterized by means of IR spectroscopy, and where the temperature of the controllable heating device of the respective reactor from whose outlet line the product fluid stream was analyzed can be adapted. a plurality of reactors arranged in parallel with reaction chambers (R1, R2, ···), the individual reactors having a catalyst capacity in the range from 0.5 to 200 ccm, a reactant fluid supply common to two or more of these reactors, a process control, an analysis unit, where each individual reactor is equipped with an individually controllable heating device and has an outlet line for product fluid stream, wherein the analysis unit is operatively connected to each said outlet line for product stream, and wherein the analysis unit is functionally associated with the control of the apparatus, where the analysis unit is suitable for analyzing a gaseous product fluid stream, and the analysis unit together with the process control allow the determination and optimization of an octane number in the reactors arranged in parallel, where the analysis unit is a gas chromatograph or the gaseous product fluid stream is characterized by means of IR spectroscopy, and where the temperature of the controllable heating device of the respective reactor from whose outlet line the product fluid stream was analyzed can be adapted.
An exterior handle assembly (10, 10A) for a vehicle door, comprising: abase (12, 12A) adapted to be surface mounted on the door; a hand grip (14, 14A) connected to the base (12, 12A) and with an open field between the base and the hand grip to receive an operator's hand; a power lock motor in the base (12, 12A); a printed circuit board in the base (12, 12A) to provide system controls for the handle assembly, with the system controls normally being in a sleep mode when an operator is not at the vehicle; a first capacitive sensor on the printed circuit board adapted to recognize a user's fob and wake up the system controls when an operator's hand enters the open field; a second capacitive sensor on the printed circuit board to cooperate with the first capacitive sensor to prevent actuation of the power lock motor in response to the weather induced capacitive changes in the open field the printed circuit board adapted to send an unlock signal to the power lock motor after recognizing the user's fob. abase (12, 12A) adapted to be surface mounted on the door; a hand grip (14, 14A) connected to the base (12, 12A) and with an open field between the base and the hand grip to receive an operator's hand; a power lock motor in the base (12, 12A); a printed circuit board in the base (12, 12A) to provide system controls for the handle assembly, with the system controls normally being in a sleep mode when an operator is not at the vehicle; a first capacitive sensor on the printed circuit board adapted to recognize a user's fob and wake up the system controls when an operator's hand enters the open field; a second capacitive sensor on the printed circuit board to cooperate with the first capacitive sensor to prevent actuation of the power lock motor in response to the weather induced capacitive changes in the open field the printed circuit board adapted to send an unlock signal to the power lock motor after recognizing the user's fob.
A method of operating a network switch connected by a physical link to a second network switch, the method of operating being for between a Fibre Channel, FC, network and an Ethernet network, and the method comprising: dynamically partitioning traffic on the physical link into a plurality of virtual lanes (320,330) by adding an extension header to packets of the traffic, in which the header comprises a Data Centre Ethernet, DCE, header, wherein the DCE header comprises a buffer credit field, an identifier of a virtual lane of said plurality of virtual lanes (320, 330) and an explicit congestion notification field configured to indicate that a buffer allocated to the virtual lane (320,330) is filled; applying a first set of rules to first traffic on a first virtual lane of said plurality of virtual lanes; applying a second set of rules to traffic on a second virtual lane of said plurality of virtual lanes; controlling at least the first virtual lane to operate as a drop lane, and controlling at least the second virtual lane to operate as a no-drop lane, wherein a no-drop lane is a lane from which packets are not intentionally dropped, and a drop lane is a lane from which packets are dropped in response to congestion; and receiving a packet comprising an explicit congestion notification field, and reducing the transmission rate for a virtual lane of said plurality of virtual lanes (320,330) identified by the header based on the explicit congestion notification field. dynamically partitioning traffic on the physical link into a plurality of virtual lanes (320,330) by adding an extension header to packets of the traffic, in which the header comprises a Data Centre Ethernet, DCE, header, wherein the DCE header comprises a buffer credit field, an identifier of a virtual lane of said plurality of virtual lanes (320, 330) and an explicit congestion notification field configured to indicate that a buffer allocated to the virtual lane (320,330) is filled; applying a first set of rules to first traffic on a first virtual lane of said plurality of virtual lanes; applying a second set of rules to traffic on a second virtual lane of said plurality of virtual lanes; controlling at least the first virtual lane to operate as a drop lane, and controlling at least the second virtual lane to operate as a no-drop lane, wherein a no-drop lane is a lane from which packets are not intentionally dropped, and a drop lane is a lane from which packets are dropped in response to congestion; and receiving a packet comprising an explicit congestion notification field, and reducing the transmission rate for a virtual lane of said plurality of virtual lanes (320,330) identified by the header based on the explicit congestion notification field.
A steel cord comprising a steel wire and a plating layer that covers the steel wire and has Cu, Zn, and Co, wherein the Cu and the Zn are alloyed and a region covered with Co and a region not covered with Co are mixed on the outermost surface of the plating layer, at least 95 wt.% of the Co present on the outermost surface of the plating layer being not alloyed. the Cu and the Zn are alloyed and a region covered with Co and a region not covered with Co are mixed on the outermost surface of the plating layer, at least 95 wt.% of the Co present on the outermost surface of the plating layer being not alloyed.
A suction belt conveyor of a rod-forming machine of the tobacco processing industry for conveying material, in particular tobacco, comprising at least one rod guiding channel which is open at the bottom and which is delimited by two lateral channel sides (102, 104) and a suction belt along a conveying path, wherein at least one electromagnetic measuring device (200, 220, 240, 260, 320) is integrated in the channel sides (102, 104) of the suction belt conveyor at at least one position along the conveying path in order to determine properties of the conveyed material, characterized in that the measuring device is designed as a microwave measuring device with at least one resonator cavity (202, 203, 222, 223, 242, 243, 262).
A computer program product for facilitating processing within a computing environment, the computer program product comprising: a computer readable storage medium readable by a processing circuit and storing instructions for performing a method comprising: determining that processing of an operation of an instruction executing on a processor has been interrupted prior to completion; and re-executing the instruction on a selected processor to resume forward processing of the instruction, the re-executing comprising: determining whether model-dependent metadata is to be used by the selected processor in re-executing the instruction; using the model-dependent metadata in re-executing the instruction, based on determining the model-dependent metadata is to be used; and proceeding with the re-executing of the instruction without using the model-dependent metadata, based on determining the model-dependent metadata is not to be used. a computer readable storage medium readable by a processing circuit and storing instructions for performing a method comprising: determining that processing of an operation of an instruction executing on a processor has been interrupted prior to completion; and re-executing the instruction on a selected processor to resume forward processing of the instruction, the re-executing comprising: determining whether model-dependent metadata is to be used by the selected processor in re-executing the instruction; using the model-dependent metadata in re-executing the instruction, based on determining the model-dependent metadata is to be used; and proceeding with the re-executing of the instruction without using the model-dependent metadata, based on determining the model-dependent metadata is not to be used. determining whether model-dependent metadata is to be used by the selected processor in re-executing the instruction; using the model-dependent metadata in re-executing the instruction, based on determining the model-dependent metadata is to be used; and proceeding with the re-executing of the instruction without using the model-dependent metadata, based on determining the model-dependent metadata is not to be used.
A computing device (100; 800) comprising: one or more electronic components disposed within a housing (404; 804) of the computing device; a centrifugal fan unit, also disposed within the housing (404; 804) of the computing device, having a hub, a plurality of blades disposed on the hub, and a motor coupled to the hub, the motor to cause the hub to rotate about an axis such that airflow proceeds outward from the centrifugal fan unit along trajectories that are perpendicular to the axis, wherein the centrifugal fan unit is not placed in a fan housing that directs the airflow towards an outlet of the fan housing; and one or more thermal transfer units (104, 106; 202; 300; 402; 504; 600; 700) having at least first portions (112, 114) that are coupled to the one or more electronic components and second portions (108, 110), wherein the second portions of the thermal transfer units are substantially circular, collectively substantially completely surround the centrifugal fan, and include corresponding pluralities of fins that are collinear with tangents of the centrifugal fan unit. one or more electronic components disposed within a housing (404; 804) of the computing device; a centrifugal fan unit, also disposed within the housing (404; 804) of the computing device, having a hub, a plurality of blades disposed on the hub, and a motor coupled to the hub, the motor to cause the hub to rotate about an axis such that airflow proceeds outward from the centrifugal fan unit along trajectories that are perpendicular to the axis, wherein the centrifugal fan unit is not placed in a fan housing that directs the airflow towards an outlet of the fan housing; and one or more thermal transfer units (104, 106; 202; 300; 402; 504; 600; 700) having at least first portions (112, 114) that are coupled to the one or more electronic components and second portions (108, 110), wherein the second portions of the thermal transfer units are substantially circular, collectively substantially completely surround the centrifugal fan, and include corresponding pluralities of fins that are collinear with tangents of the centrifugal fan unit.
A method of determining in a circuit for processing digital images second lumas of pixels of a secondary graphics image element to be mixed with at least one high dynamic range input image, the method comprising: receiving a high dynamic range image signal (S_im) comprising the at least one high dynamic range input image, characterized in that the method comprises: - analyzing the high dynamic range image signal to determine a range of primary graphics lumas (R_gra) of a primary graphics element of the at least one high dynamic range input image, which is a sub-range of a range of luminances of the high dynamic range input image, wherein the determining a range of primary graphics lumas comprises determining a lower luma (Y_low) and an upper luma (Y_high) specifying endpoints of the range of primary graphics lumas (R_gra); - luminance mapping the secondary graphics element with at least a brightest subset of its pixel lumas comprised in the range of graphics lumas; and - mixing the secondary graphics image element with the high dynamic range input image. - analyzing the high dynamic range image signal to determine a range of primary graphics lumas (R_gra) of a primary graphics element of the at least one high dynamic range input image, which is a sub-range of a range of luminances of the high dynamic range input image, wherein the determining a range of primary graphics lumas comprises determining a lower luma (Y_low) and an upper luma (Y_high) specifying endpoints of the range of primary graphics lumas (R_gra); - luminance mapping the secondary graphics element with at least a brightest subset of its pixel lumas comprised in the range of graphics lumas; and - mixing the secondary graphics image element with the high dynamic range input image.
A system for forming a cushioning pod structure, the system comprising: a first thermoforming station comprised of a first film holder and a first thermoforming mold holder; a second thermoforming station comprised of a second film holder and a second thermoforming mold holder; a thermal source moveable between the first thermoforming station and the second thermoforming station, wherein the first film holder is between the thermal source and the first thermoforming mold holder when the thermal source is positioned at the first thermoforming station, and the second film holder is between the thermal source and the second thermoforming mold holder when the thermal source is positioned at the second thermoforming station; a vacuum source fluidly coupled to at least one of the first thermoforming station or the second thermoforming station; and a movement mechanism configured to move the thermal source between the first thermoforming station and the second thermoforming station, wherein the first thermoforming station further comprises a first sag sensor, the first sag sensor is positioned below the first film holder.
A vacuum priming system for priming a liquid pump, the system comprising: a well chamber with an inlet for connection with a source of liquid and an outlet for connection with a liquid pump; a vacuum chamber in fluid communication with the well chamber; and an internal combustion engine; the system being characterised by a vacuum pump comprising an air inlet fluidly connected to an air outlet of the vacuum chamber and an air outlet in fluid communication with an air intake of the engine; and a baffle chamber within which is received air baffle means between the air outlet of the vacuum pump and the air intake of the engine and configured to cause or force air flowing, in use, from the vacuum pump to the air intake of the engine to flow along a non-linear or tortuous path. a well chamber with an inlet for connection with a source of liquid and an outlet for connection with a liquid pump; a vacuum chamber in fluid communication with the well chamber; and an internal combustion engine; the system being characterised by a vacuum pump comprising an air inlet fluidly connected to an air outlet of the vacuum chamber and an air outlet in fluid communication with an air intake of the engine; and a baffle chamber within which is received air baffle means between the air outlet of the vacuum pump and the air intake of the engine and configured to cause or force air flowing, in use, from the vacuum pump to the air intake of the engine to flow along a non-linear or tortuous path.
Securing means and lining material (12, 32, 60, 81, 102, 118, 119, 140, 143) for the wall inner surface (33, 61, 80, 100, 109, 110, 130) of a load-bearing construction, such as a container, apparatus, duct, housing, or column, which is acted upon by a gaseous or liquid medium, whereby multiple distributed securing points in the form of securing elements are connected to the wall inner surface (33, 61, 80, 100, 109, 110, 130) and provided to secure the lining material (12, 32, 60, 81, 102, 118, 119, 140, 143), characterized in that the securing elements consist of a holding element that is connectable to the lining material (12, 32, 60, 81, 102, 118, 119, 143), and a pressing element which is connected to the inner wall surface (33, 61, 80, 100, 109, 110, 130), wherein the holding element and the pressing element are connected to each other in a force- and/or form-fit.