mhurhangee/patent-ind-claim-en huggingface dataset:
A packet backpressure detection method, wherein the method is applied to a device having a Peripheral Component Interconnect Express, PCIe, port, and the method comprises: storing , by the device in a buffer when each to-be-sent packet in a packet sending queue of a PCIe port in a cache unit becomes a packet that currently needs to be sent at the PCIe port, the packet that currently needs to be sent, wherein the packet that currently needs to be sent is the first packet in the packet sending queue, wherein the packet stored in the buffer is removed from the buffer after being sent by using the PCIe port; recording , by the device, storage duration of each packet stored in the buffer, and accumulating the recorded storage duration of each packet in the buffer, so as to obtain accumulated duration of packet storage in the buffer; resetting, by the device, the accumulated duration to 0 in a preset condition; and when the accumulated duration reaches a first threshold, determining , by the device, that packet backpressure occurs at the PCIe port. storing , by the device in a buffer when each to-be-sent packet in a packet sending queue of a PCIe port in a cache unit becomes a packet that currently needs to be sent at the PCIe port, the packet that currently needs to be sent, wherein the packet that currently needs to be sent is the first packet in the packet sending queue, wherein the packet stored in the buffer is removed from the buffer after being sent by using the PCIe port; recording , by the device, storage duration of each packet stored in the buffer, and accumulating the recorded storage duration of each packet in the buffer, so as to obtain accumulated duration of packet storage in the buffer; resetting, by the device, the accumulated duration to 0 in a preset condition; and when the accumulated duration reaches a first threshold, determining , by the device, that packet backpressure occurs at the PCIe port.
A method performed by a wireless device , served by a network node , for enabling the network node of a radio network to decode contention based uplink transmissions of data, the method comprising: - initiating automatic registration of the wireless device with the network node , for contention based uplink transmissions of data on a radio resource reserved for contention based uplink transmissions of data, - receiving (2:5, 402) an acknowledgement from the network node indicating that the wireless device is registered for contention based uplink transmissions of data, wherein the acknowledgement comprises an identifier,and - transmitting (2:6, 404), using the identifier, data on the radio resource, thereby enabling the network node to perform blind decoding of the data by considering wireless devices being registered for contention based uplink transmissions of data on the radio resource. - initiating automatic registration of the wireless device with the network node , for contention based uplink transmissions of data on a radio resource reserved for contention based uplink transmissions of data, - receiving (2:5, 402) an acknowledgement from the network node indicating that the wireless device is registered for contention based uplink transmissions of data, wherein the acknowledgement comprises an identifier,and - transmitting (2:6, 404), using the identifier, data on the radio resource, thereby enabling the network node to perform blind decoding of the data by considering wireless devices being registered for contention based uplink transmissions of data on the radio resource.
Process for the analysis of the acoustic characteristic of an exhaust gas flap for an exhaust system of an internal combustion engine, wherein the exhaust gas flap comprises a flap diaphragm , which is adjustable in a flap body , wherein the process comprises the following steps: a) application of a measurement noise to the exhaust gas flap , b) detection of disturbing noises originating at the exhaust gas flap and generation of a disturbing noise time course , c) generation of a disturbing noise frequency course based on the disturbing noise time course , d) comparison of the disturbing noise frequency course with a reference disturbing noise frequency course , e) evaluation of the acoustic quality of the exhaust gas flap based on the comparison carried out in step d), wherein in step a) the measured noise is a single tone, and wherein the quality of the exhaust gas flap is evaluated in step e) as corresponding to a desired quality, when the disturbing noise frequency course is below the reference disturbing noise frequency course in at least one predetermined frequency range (f1-f2). a) application of a measurement noise to the exhaust gas flap , b) detection of disturbing noises originating at the exhaust gas flap and generation of a disturbing noise time course , c) generation of a disturbing noise frequency course based on the disturbing noise time course , d) comparison of the disturbing noise frequency course with a reference disturbing noise frequency course , e) evaluation of the acoustic quality of the exhaust gas flap based on the comparison carried out in step d),
A label fitting system that fits a cylindrical label (L) to an outer periphery of a cylindrical container , the label fitting system comprising: a label arrangement mechanism that arranges the cylindrical label supplied above the cylindrical container, on the outer periphery of the cylindrical container by pushing down the cylindrical label, wherein the label arrangement mechanism includes: a base in an annular shape capable of ascending and descending; and a plurality of legs extending downward from the base, each of the plurality of legs has elasticity so that the leg is capable of being displaced in a radial direction and further has a lower end portion that comes into contact with an upper end of the cylindrical label (L), and when the base descends, the lower end portion of the leg pushes down the cylindrical label as descending along an outer peripheral surface of the cylindrical container . a label arrangement mechanism that arranges the cylindrical label supplied above the cylindrical container, on the outer periphery of the cylindrical container by pushing down the cylindrical label, wherein the label arrangement mechanism includes: a base in an annular shape capable of ascending and descending; and a plurality of legs extending downward from the base, each of the plurality of legs has elasticity so that the leg is capable of being displaced in a radial direction and further has a lower end portion that comes into contact with an upper end of the cylindrical label (L), and when the base descends, the lower end portion of the leg pushes down the cylindrical label as descending along an outer peripheral surface of the cylindrical container . a base in an annular shape capable of ascending and descending; and a plurality of legs extending downward from the base, each of the plurality of legs has elasticity so that the leg is capable of being displaced in a radial direction and further has a lower end portion that comes into contact with an upper end of the cylindrical label (L), and when the base descends, the lower end portion of the leg pushes down the cylindrical label as descending along an outer peripheral surface of the cylindrical container .
Device for mounting a nut inside a recess of a bottom fairing configured to be fixed under a platform of a motor vehicle chassis , the device comprising said recess having a bottom against which the nut can be applied via at least one elastically deformable member arranged inside the recess overhanging the bottom and which is able to bear against a flange 13) that the nut comprises, and in that the elastically deformable member (10 a, 10 b, 10 c) is configured in at least one flexible tab (10 a, 10 b, 10 c), the ramp being formed at an upstream end of the tab (10 a, 10 b, 10 c) oriented towards the direction (S 1) of introduction of the nut under the tab (10 a, 10 b, 10 c).
A process for producing nitric acid, comprising the steps of: (a) catalytically combusting a mixture of ammonia and an oxygen containing fluid, in particular air and/or oxygen, in an ammonia burner , thereby forming an ammonia combustion stream; (b) oxidizing at least partially the nitric oxide in the ammonia combustion stream of step (a) to nitrogen dioxide; (c) absorbing in an aqueous solution, by means of an absorber , the nitrogen dioxide contained in the stream of step (b), thereby forming a concentrated aqueous nitric acid solution, wherein the oxygen containing fluid is supplied to the ammonia burner via an oxygen containing fluid supply line , wherein in at least one section of the oxygen containing fluid supply line the oxygen containing fluid is a liquid; (d) increasing the pressure of the oxygen containing liquid in the oxygen containing fluid supply line thereby obtaining a pressurized oxygen containing liquid, wherein the pressurized oxygen containing liquid has a pressure of at least 10 bara, particularly at least 50 bara, more particularly at least 100 bara or at least 150 bara and even more particularly has a pressure between 150 and 250 bara; (e) evaporating or boiling the pressurized oxygen containing liquid obtained in step (d), in particular by heat recuperated downstream from the ammonia burner , thereby obtaining a pressurized oxygen containing gas; and (f) expanding the pressurized oxygen containing gas over a first turbine , which is particularly coupled to a generator for generating electricity. (a) catalytically combusting a mixture of ammonia and an oxygen containing fluid, in particular air and/or oxygen, in an ammonia burner , thereby forming an ammonia combustion stream; (b) oxidizing at least partially the nitric oxide in the ammonia combustion stream of step (a) to nitrogen dioxide; (c) absorbing in an aqueous solution, by means of an absorber , the nitrogen dioxide contained in the stream of step (b), thereby forming a concentrated aqueous nitric acid solution, wherein the oxygen containing fluid is supplied to the ammonia burner via an oxygen containing fluid supply line , wherein in at least one section of the oxygen containing fluid supply line the oxygen containing fluid is a liquid; (d) increasing the pressure of the oxygen containing liquid in the oxygen containing fluid supply line thereby obtaining a pressurized oxygen containing liquid, wherein the pressurized oxygen containing liquid has a pressure of at least 10 bara, particularly at least 50 bara, more particularly at least 100 bara or at least 150 bara and even more particularly has a pressure between 150 and 250 bara; (e) evaporating or boiling the pressurized oxygen containing liquid obtained in step (d), in particular by heat recuperated downstream from the ammonia burner , thereby obtaining a pressurized oxygen containing gas; and (f) expanding the pressurized oxygen containing gas over a first turbine , which is particularly coupled to a generator for generating electricity.
Process to operate an oven comprising: - a first chamber and a second chamber , which are separated by separation means , - each chamber comprising a rotatable drum , - a conveyor belt for guiding products from the inlet through these chambers to the outlet , - the conveyor belt is guided around each drum in a helical path and wherein the conveyor belt enters the oven via the inlet by a straight belt section and leaves the oven via the outlet by a straight belt section and wherein the two helical paths are connected by a straight belt section , which lies at the top, - wherein the separation means comprise a passage (2.1) for the belt section , the passage being larger than the conveyor belt, - temperature control means for controlling the temperature in each chamber individually using a fluid, respectively, - each chamber comprises at least one fan and ducts for a fluid circulation in the chamber and - a passage (2.1) in the separation means through which the conveyor belt is directed from the first chamber to the second chamber , characterized in, that the magnitude and the direction of the leakage between the first chamber and the second chamber or vice versa and to or from the ambient is controlled in order to adjust process parameters in one chamber , by reducing the pressure in one chamber or increasing the pressure in one chamber and wherein in case the temperature in a chamber is below or above a desired set point, a controlled leakage via the passage (2.1) or any other fluid-connection between the two chambers is initiated and maintained until the temperature is in the respective chamber are in the desired range and then stopped. - a first chamber and a second chamber , which are separated by separation means , - each chamber comprising a rotatable drum , - a conveyor belt for guiding products from the inlet through these chambers to the outlet , - the conveyor belt is guided around each drum in a helical path and wherein the conveyor belt enters the oven via the inlet by a straight belt section and leaves the oven via the outlet by a straight belt section and wherein the two helical paths are connected by a straight belt section , which lies at the top, - wherein the separation means comprise a passage (2.1) for the belt section , the passage being larger than the conveyor belt, - temperature control means for controlling the temperature in each chamber individually using a fluid, respectively, - each chamber comprises at least one fan and ducts for a fluid circulation in the chamber and - a passage (2.1) in the separation means through which the conveyor belt is directed from the first chamber to the second chamber ,
An optical component having a wall with a first wall surface and a second wall surface , the second wall surface being opposite to the first wall surface in a first direction , the wall comprising a plurality of layers stacked on top of each other in a second direction perpendicular to the first direction , wherein the optical component comprises an inner volume , and wherein each layer (130a-d) envelopes part of the inner volume , characterized in that each layer (130a-d) of the plurality of layers has a first region (131a-d) with a first edge surface (134a-d) and an opposite second edge surface (135a-d), both extending through the layer (130a-d) in the second direction , the first edge surface (134a-d) being an interface between the first region (131a-d) and a second region (132a-d), and the second edge surface (135a-d) being an interface between the first region (131a-d) and a third region (133a-d), the first region (131a-d) having a lower transmissivity than each of the second region (131a-d) and the third region (133a-d), wherein each layer also comprises at least one of the second and third regions, wherein each first region (631a-b) has a defined width (W1), being a distance between the first edge surface (134a-d) and the second edge surface (135a-d), and wherein successive layers (630a-b) are partially overlapping such that the first regions (631a-b) of adjacent layers (630a-b) are non-overlapping. wherein the optical component comprises an inner volume , and wherein each layer (130a-d) envelopes part of the inner volume , characterized in that each layer (130a-d) of the plurality of layers has a first region (131a-d) with a first edge surface (134a-d) and an opposite second edge surface (135a-d), both extending through the layer (130a-d) in the second direction , the first edge surface (134a-d) being an interface between the first region (131a-d) and a second region (132a-d), and the second edge surface (135a-d) being an interface between the first region (131a-d) and a third region (133a-d), the first region (131a-d) having a lower transmissivity than each of the second region (131a-d) and the third region (133a-d), wherein each layer also comprises at least one of the second and third regions, wherein each first region (631a-b) has a defined width (W1), being a distance between the first edge surface (134a-d) and the second edge surface (135a-d), and wherein successive layers (630a-b) are partially overlapping such that the first regions (631a-b) of adjacent layers (630a-b) are non-overlapping.
Displacement-imposed fatigue test bench for a manufactured item (W) made from metallic material, comprising: - a base ; - a table supported by the base , having its main extension along a table axis (X), for the support of the manufactured item (W); - means of constraint for the constraint of the manufactured item (W) to the table , along the table axis (X), according to a predefined constraint simulation; - a drive group comprising: a) drive means; b) a characterisation device , moved by the drive means; c) a pressure element , moved by the characterization device and suitable for coming into contact with the manufactured item (W) to impose a deformation on it; characterised in that the characterization device comprises a shaft fitted with at least one cam element which operates the pressure element impressing a vertical oscillation on it, and in that the pressure element is a plate having a main extension along the table axis (X). - a base ; - a table supported by the base , having its main extension along a table axis (X), for the support of the manufactured item (W); - means of constraint for the constraint of the manufactured item (W) to the table , along the table axis (X), according to a predefined constraint simulation; - a drive group comprising: a) drive means; b) a characterisation device , moved by the drive means; c) a pressure element , moved by the characterization device and suitable for coming into contact with the manufactured item (W) to impose a deformation on it; characterised in that the characterization device comprises a shaft fitted with at least one cam element which operates the pressure element impressing a vertical oscillation on it, a) drive means; b) a characterisation device , moved by the drive means; c) a pressure element , moved by the characterization device and suitable for coming into contact with the manufactured item (W) to impose a deformation on it; characterised in that the characterization device comprises a shaft fitted with at least one cam element which operates the pressure element impressing a vertical oscillation on it,
Seal containing a substrate , which can be applied to an object to be sealed so that this seal is changed when it is removed without authorization, the substrate having a polygonal or round shape and containing or consisting of a polymer and/or a glass, and the substrate accommodating at least one optical waveguide , in which at least a first Bragg grating is arranged, characterized in that the substrate has a thickness of less than about 200 μm, a length of more than 1 mm and a width of more than 1 mm.
A method of operating a sliding door system , comprising a door drive with a traction means formed as a toothed belt, a sliding door gear with a displaceable carriage for a sliding door element , which is coupled to the traction means , and an interlocking device for interlocking the door drive , wherein the interlocking device includes at least one interlocking means , which is movable back and forth between a release location and an interlocking location, wherein, in the interlocking location, an interlocking section of the interlocking means positively cooperates with the traction means , wherein the method comprises the following method steps: - in a trigger step an interlocking command is transmitted to the interlocking device for moving the interlocking means to the interlocking location; and - in a detection step following the trigger step , a position sensor of the interlocking device detects the location of the interlocking means , characterized in that furthermore the method comprises the following method steps: wherein - in a movement step following the detection step , the traction means is moved by a specified travel length with regard to the interlocking means ; and - after the movement step are repeated the trigger step and the detection step . - in a trigger step an interlocking command is transmitted to the interlocking device for moving the interlocking means to the interlocking location; and - in a detection step following the trigger step , a position sensor of the interlocking device detects the location of the interlocking means , characterized in that furthermore the method comprises the following method steps: wherein - in a movement step following the detection step , the traction means is moved by a specified travel length with regard to the interlocking means ; and - after the movement step are repeated the trigger step and the detection step .
Apparatus for anchoring a morphable tubular in a wellbore, comprising: a tubular member including an expandable portion; the expandable portion having an anchoring system arranged around a circumference thereof; the anchoring system comprising: a gripper element having first and second oppositely arranged inclined surfaces; first and second wedge elements having third and fourth inclined surfaces respectively arranged on either side of the gripper element , wherein the first and second wedge elements are annular beam springs circumferentially arranged around the outer surface of a body of the tubular member and wherein the beam springs have annularly arranged cutaways which allow them to be expandable or compressible along the longitudinal axis of the tubular member ; wherein the anchoring system is configured to maintain the gripper element in a radially extended position by action of the annular beam springs following morphing of the expandable portion; and characterised in that the first and second wedge elements are oppositely arranged to act against the first and second inclined surfaces of the gripper element . a tubular member including an expandable portion; the expandable portion having an anchoring system arranged around a circumference thereof; the anchoring system comprising: a gripper element having first and second oppositely arranged inclined surfaces; first and second wedge elements having third and fourth inclined surfaces respectively arranged on either side of the gripper element , wherein the first and second wedge elements are annular beam springs circumferentially arranged around the outer surface of a body of the tubular member and wherein the beam springs have annularly arranged cutaways which allow them to be expandable or compressible along the longitudinal axis of the tubular member ; wherein the anchoring system is configured to maintain the gripper element in a radially extended position by action of the annular beam springs following morphing of the expandable portion; and characterised in that the first and second wedge elements are oppositely arranged to act against the first and second inclined surfaces of the gripper element . a gripper element having first and second oppositely arranged inclined surfaces; first and second wedge elements having third and fourth inclined surfaces respectively arranged on either side of the gripper element , wherein the first and second wedge elements are annular beam springs circumferentially arranged around the outer surface of a body of the tubular member and wherein the beam springs have annularly arranged cutaways which allow them to be expandable or compressible along the longitudinal axis of the tubular member ; wherein the anchoring system is configured to maintain the gripper element in a radially extended position by action of the annular beam springs following morphing of the expandable portion; and characterised in that the first and second wedge elements are oppositely arranged to act against the first and second inclined surfaces of the gripper element .