mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a network node of a cellular communication network adapted for application of an uplink triggered cell handover functionality (210; 310), the method comprising: dynamically restricting (230; 330, 331) application of the uplink triggered cell handover functionality based on whether (220; 321, 322, 323, 324, 325) a restriction criterion is met upon having determined (Y, 321) that an uplink metric is greater than or equal to a first threshold or, otherwise (N, 321), if the uplink metric is not greater than or equal to the first threshold, upon having determined (Y, 322) that a cell load is greater than a second threshold, and wherein the application of the uplink triggered cell handover functionality is restricted for all wireless communication devices served by the network node. dynamically restricting (230; 330, 331) application of the uplink triggered cell handover functionality based on whether (220; 321, 322, 323, 324, 325) a restriction criterion is met upon having determined (Y, 321) that an uplink metric is greater than or equal to a first threshold or, otherwise (N, 321), if the uplink metric is not greater than or equal to the first threshold, upon having determined (Y, 322) that a cell load is greater than a second threshold, and wherein the application of the uplink triggered cell handover functionality is restricted for all wireless communication devices served by the network node.
A process for monitoring the concentration of bacteria in the water of a water distribution network under surrounding conditions, characterized in that it comprises the following steps: • measuring the concentration of bacteria in the water by means of a first sensor positioned at a first location in the water distribution network (step 1001), • determining a single variable instantaneous value of the expected concentration of bacteria in the water at the first location, an evolving and regularly updated value, as a function of a parameter comprising physico-chemical and/or bacteriological characteristics of the water, said parameter being evolving and taking account of the surrounding conditions of the water network (step 1002), • at a predefined frequency: comparing the concentration of bacteria in the water measured by the first sensor to the variable instantaneous value (step 1003). • measuring the concentration of bacteria in the water by means of a first sensor positioned at a first location in the water distribution network (step 1001), • determining a single variable instantaneous value of the expected concentration of bacteria in the water at the first location, an evolving and regularly updated value, as a function of a parameter comprising physico-chemical and/or bacteriological characteristics of the water, said parameter being evolving and taking account of the surrounding conditions of the water network (step 1002), • at a predefined frequency: comparing the concentration of bacteria in the water measured by the first sensor to the variable instantaneous value (step 1003).
A cortical stimulation device, comprising: a detection module, configured to detect cortical oscillations in a subject; an analysis module configured to analyze the detected cortical oscillations; a generation module configured to generate an oscillating electric current; and an oscillating electric current passing module configured to pass oscillating electric current through the skull of the subject, characterized in that : the detection module is configured to detect coherence between the cortical oscillations in the subject. a detection module, configured to detect cortical oscillations in a subject; an analysis module configured to analyze the detected cortical oscillations; a generation module configured to generate an oscillating electric current; and an oscillating electric current passing module configured to pass oscillating electric current through the skull of the subject, characterized in that : the detection module is configured to detect coherence between the cortical oscillations in the subject.
A spinning process of a magnesium alloy wheel hub, wherein the spinning process comprises the following steps: Step 1, heating the magnesium alloy bar at 350 ~ 430°C and keeping the temperature for 20 minutes; Step 2, initially forging and forming on the bar under a forging press, wherein the forging down-pressing speed is 6 ~ 15 mm/s; Step 3, finally forging and forming on the bar under a forging press, wherein the forging down-pressing speed is 5 ~ 8 mm/s; wherein Step 4, stress relief annealing on the finally forged magnesium alloy blank; Step 5, solid dissolving on the annealed magnesium alloy blank, wherein the solid solution temperature in step 5 is 390 ~ 420°C and the holding time is equal to or more than 16 hours; Step 6, taking out the solid-dissolved blank and directly spinning by a spinning machine, wherein the spinning process in step 6 is carried out in three times, and the spinning thinning amounts are 25 ~ 36%, 14 ~ 22% and 6 ~ 12%, respectively, and the total thinning amount reaches 45 ~ 70%, and the spinning feed speed is 120 ~ 190 mm/min and the spindle speed is 280 ~ 350 r/min; Step 7, heating treatment and aging treatment; wherein the magnesium alloy comprises an AZ80 magnesium-aluminum-zinc alloy or a ZK60 magnesium-zinc-zirconium alloy. Step 1, heating the magnesium alloy bar at 350 ~ 430°C and keeping the temperature for 20 minutes; Step 2, initially forging and forming on the bar under a forging press, wherein the forging down-pressing speed is 6 ~ 15 mm/s; Step 3, finally forging and forming on the bar under a forging press, wherein the forging down-pressing speed is 5 ~ 8 mm/s; wherein Step 4, stress relief annealing on the finally forged magnesium alloy blank; Step 5, solid dissolving on the annealed magnesium alloy blank, wherein the solid solution temperature in step 5 is 390 ~ 420°C and the holding time is equal to or more than 16 hours; Step 6, taking out the solid-dissolved blank and directly spinning by a spinning machine, wherein the spinning process in step 6 is carried out in three times, and the spinning thinning amounts are 25 ~ 36%, 14 ~ 22% and 6 ~ 12%, respectively, and the total thinning amount reaches 45 ~ 70%, and the spinning feed speed is 120 ~ 190 mm/min and the spindle speed is 280 ~ 350 r/min; Step 7, heating treatment and aging treatment; wherein the magnesium alloy comprises an AZ80 magnesium-aluminum-zinc alloy or a ZK60 magnesium-zinc-zirconium alloy.
Prefabricated construction element comprising: - a first, external wall , - a second, internal wall , the first wall and the second wall being substantially mutually parallel and kept at a distance from one another, - an insulating wall interposed between the first wall and the second wall , at least first means for circulation of a heat transfer fluid that are associated with the first wall , - at least means for concentrating thermal radiation that are associated with the external face of the first wall in order to increase the amount of thermal radiation that can be stored in the material (M) of the first wall , said construction element being characterized in that it consists of a wall with integrated formwork and insulation, in that the first wall comprises an internal face on the opposite side from an external face , in which the insulating wall is mounted at a contact face of the insulating wall , in that the first wall and the insulating wall are kept at a distance from the second wall by a plurality of connecting members so as to form a formwork space that is able and intended to be filled with a hydraulic filling material, in that the means for concentrating thermal radiation comprise an air-gap wall associated with the external face of the first wall , and in that the air-gap wall is kept at a distance (d) from the external face so as to create an empty space between the external face and the air-gap wall so as to form an air gap. - a first, external wall , - a second, internal wall , the first wall and the second wall being substantially mutually parallel and kept at a distance from one another, - an insulating wall interposed between the first wall and the second wall , at least first means for circulation of a heat transfer fluid that are associated with the first wall , - at least means for concentrating thermal radiation that are associated with the external face of the first wall in order to increase the amount of thermal radiation that can be stored in the material (M) of the first wall , said construction element being characterized in that it consists of a wall with integrated formwork and insulation, in that the first wall comprises an internal face on the opposite side from an external face , in which the insulating wall is mounted at a contact face of the insulating wall , in that the first wall and the insulating wall are kept at a distance from the second wall by a plurality of connecting members so as to form a formwork space that is able and intended to be filled with a hydraulic filling material, in that the means for concentrating thermal radiation comprise an air-gap wall associated with the external face of the first wall , and in that the air-gap wall is kept at a distance (d) from the external face so as to create an empty space between the external face and the air-gap wall so as to form an air gap.
A wristlet clasp , of the folding buckle type, comprising first and second blades hinged relative to each other, by a first of their respective ends, between a closed position, called wearing position, and at least one open position, said first blade carrying a member for fastening a first wristlet strand at its second end and locking means for holding said first and second blades in their closed position at its second end, and said second blade carrying a member for fastening a second wristlet strand at its second end, said first and second blades are hinged together by means of a pair of movable blades by a first of their respective ends, said hinged blades being connected to the first and second blades via a first hinge (A1) and a second hinge (A2), said hinges (A1, A2) being angularly delimited by stops (10a, 10b, 21a, 21b; 30a , 30b, 40a, 40b), the clasp being characterised in that the stops are formed on the first end of the first and second blades and on the second end of the movable blades so as to define two predefined wearing positions depending on the size of the wrist.
A medical device with an endoscope head , which is configured to be detachably connected to endoscope tubes , and with a measuring adapter , wherein the endoscope head has a longitudinal channel for receiving an endoscope tube between its proximal end and its distal end , wherein at least one measuring channel is arranged in the endoscope head which measuring channel has at least one inner connection opening which is connected to the longitudinal channel , and at least one outer connection opening which is arranged on the outside of the endoscope head in a lateral adapter connection region , wherein the outer connection opening is connected to at least one measuring channel in the measuring adapter , which is detachably connected to the endoscope head , wherein the measuring adapter is configured as a U-shaped clamp, with a back and with two arms , which are connected to the back , characterised in that the measuring adapter has latching projections at a distance from the back , which are located at free ends of the resiliently formed arms and which point inwardly towards the endoscope head; and the endoscope head has a latching edge, wherein the arms are configured such that they are bent apart when the measuring adapter is attached to the endoscope head , wherein the latching projections slide over the adapter connection region of the endoscope head and snap behind the latching edge of the endoscope head , so that the arms spring back and form a sufficiently tight connection between the at least one measuring channel in the endoscope head and a measuring channel in the at least one arm of the measuring adapter . the endoscope head has a latching edge, wherein the arms are configured such that they are bent apart when the measuring adapter is attached to the endoscope head , wherein the latching projections slide over the adapter connection region of the endoscope head and snap behind the latching edge of the endoscope head , so that the arms spring back and form a sufficiently tight connection between the at least one measuring channel in the endoscope head and a measuring channel in the at least one arm of the measuring adapter .
A planar magnetic speaker comprising: a layer of an array of magnets generating a magnetic field with a continuously varying magnetic flux density across the magnets ; and a diaphragm comprising a substrate layer and a conductive material over the substrate layer, a conductive circuit formed from the conductive material, wherein portions of the conductive material have been removed by a laser to create the conductive circuit having particular dimensions of traces, the dimensions of the traces varying and being selected for optimizing performance characteristics of the diaphragm in the planar magnetic transducer, wherein a trace width , trace spacing, and trace height of the conductive circuit are varied to match the flux density of the magnetic field such that: • trace widths are finer where the magnetic flux density approaches zero and are wider where the magnetic flux density approaches greatest positive and negative values; or • trace heights are finest where the magnetic flux density approaches zero, and widest where the magnetic flux density approaches greatest positive and negative values. a layer of an array of magnets generating a magnetic field with a continuously varying magnetic flux density across the magnets ; and a diaphragm comprising a substrate layer and a conductive material over the substrate layer, a conductive circuit formed from the conductive material, wherein portions of the conductive material have been removed by a laser to create the conductive circuit having particular dimensions of traces, the dimensions of the traces varying and being selected for optimizing performance characteristics of the diaphragm in the planar magnetic transducer, wherein a trace width , trace spacing, and trace height of the conductive circuit are varied to match the flux density of the magnetic field such that: • trace widths are finer where the magnetic flux density approaches zero and are wider where the magnetic flux density approaches greatest positive and negative values; or • trace heights are finest where the magnetic flux density approaches zero, and widest where the magnetic flux density approaches greatest positive and negative values. • trace widths are finer where the magnetic flux density approaches zero and are wider where the magnetic flux density approaches greatest positive and negative values; or • trace heights are finest where the magnetic flux density approaches zero, and widest where the magnetic flux density approaches greatest positive and negative values.
A sensor device for scanning laser machining of a workpiece by means of a laser beam rotating around a point, comprising a holding device and at least two sensors , characterized in that the holding device is formed by a matrix- or honeycomb-shaped arrangement of firmly interconnected sleeves, consisting of individual sleeves open on at least one side, each having a sleeve axis (3.0), the sleeve axes (3.0) intersecting at a point of intersection (P) outside the holding device , and the at least two sensors , each having a sensor axis (2.0), each being arranged in one of the sleeves such that their sensor axis (2.0) coincides with the sleeve axis (3.0). comprising a holding device and at least two sensors , characterized in that the holding device is formed by a matrix- or honeycomb-shaped arrangement of firmly interconnected sleeves, consisting of individual sleeves open on at least one side, each having a sleeve axis (3.0), the sleeve axes (3.0) intersecting at a point of intersection (P) outside the holding device , and the at least two sensors , each having a sensor axis (2.0), each being arranged in one of the sleeves such that their sensor axis (2.0) coincides with the sleeve axis (3.0).
A method of allocating processing capability of a user equipment , comprising: determining , by a first access node , the processing capability of the user equipment ; determining , by the first access node , a first allocation of the processing capability of the user equipment for the first access node , wherein the first allocation is a portion of a total processing capability of the user equipment ; identifying, by the first access node , that the user equipment is in communication with the first access node and a second access node ; and communicating, by the first access node to the second access node , the processing capability of the user equipment and the first allocation of the processing capability of the user equipment for the first access node to allow the second access node to identify a second allocation of the processing capability of the user equipment for the second access node with a total of the first allocation and the second allocation being less than or equal to the processing capability of the user equipment . determining , by a first access node , the processing capability of the user equipment ; determining , by the first access node , a first allocation of the processing capability of the user equipment for the first access node , wherein the first allocation is a portion of a total processing capability of the user equipment ; identifying, by the first access node , that the user equipment is in communication with the first access node and a second access node ; and communicating, by the first access node to the second access node , the processing capability of the user equipment and the first allocation of the processing capability of the user equipment for the first access node to allow the second access node to identify a second allocation of the processing capability of the user equipment for the second access node with a total of the first allocation and the second allocation being less than or equal to the processing capability of the user equipment .
A power transistor comprising: a substrate ; a first plurality of contacts comprising first gate contacts formed above the substrate and arranged in a first linear array to form a first plurality of transistors; a second plurality of contacts comprising second gate contacts formed above the substrate and arranged in a second linear array that is in parallel with the first linear array to form a second plurality of transistors; and a third plurality of contacts (108; 110, 112) comprising third gate contacts formed above the substrate and arranged in a third linear array that is in parallel to the first and second linear arrays to form a third plurality of transistors, characterized in that the first plurality of contacts, the second plurality of contacts, and the third plurality of contacts share a plurality of common drain contacts having a width that is larger than a width of the first gate contacts. a substrate ; a first plurality of contacts comprising first gate contacts formed above the substrate and arranged in a first linear array to form a first plurality of transistors; a second plurality of contacts comprising second gate contacts formed above the substrate and arranged in a second linear array that is in parallel with the first linear array to form a second plurality of transistors; and a third plurality of contacts (108; 110, 112) comprising third gate contacts formed above the substrate and arranged in a third linear array that is in parallel to the first and second linear arrays to form a third plurality of transistors, characterized in that the first plurality of contacts, the second plurality of contacts, and the third plurality of contacts share a plurality of common drain contacts having a width that is larger than a width of the first gate contacts.
A door weather strip comprising: an upper extrusion molded part installed along an upper part of a door sash or a door panel on a roof side of an automobile; a molded part connected to an end of the upper extrusion molded part on a door corner part; and a lower extrusion molded part installed along a vertical part of the door sash or the door panel, an upper end of the lower extrusion molded part being detachably inserted into the molded part ; said upper extrusion molded part, said molded part and said lower extrusion molded part having a base bottom part and a hollow seal member formed thereon, the hollow seal member being integrally molded with the base bottom part and making elastic contact with a door opening circumferential edge on a body side when a door is closed, wherein: a seal bead or a lip is integrally molded with the molded part without being broken off because of a slit for pulling out a core for molding, said seal bead or said lip continuously extending from an inner-cabin side toward an outer-cabin side crossing the base bottom part of said molded part from the inner-cabin side toward an outer-cabin side first on an upper part on said roof side and descending along the outer-cabin side on a part of said molded part , which is on an outer circumferential side of the molded part , on a side of the vertical part of said door sash or said door panel; and an outer-cabin side relative to a ridge line of the hollow seal member of the molded part protrudes toward a lower direction compared with an inner-cabin side, thereby forming a difference in level on the lower end of the hollow seal member of the molded part and varying a shape, the difference in level crossing the ridge line . a seal bead or a lip is integrally molded with the molded part without being broken off because of a slit for pulling out a core for molding, said seal bead or said lip continuously extending from an inner-cabin side toward an outer-cabin side crossing the base bottom part of said molded part from the inner-cabin side toward an outer-cabin side first on an upper part on said roof side and descending along the outer-cabin side on a part of said molded part , which is on an outer circumferential side of the molded part , on a side of the vertical part of said door sash or said door panel; and an outer-cabin side relative to a ridge line of the hollow seal member of the molded part protrudes toward a lower direction compared with an inner-cabin side, thereby forming a difference in level on the lower end of the hollow seal member of the molded part and varying a shape, the difference in level crossing the ridge line .