mhurhangee/ep-ind-claims huggingface dataset:
A method of reconfiguring a network, the method comprising: determining a first network topology, the first network topology comprising: a first set of physical connections, each physical connection created between a port on a point of delivery, POD, and a port on a patch panel; a first set of logical connections (155, 165, 175, 185) within each patch panel (150, 160, 170, 180) of the network; receiving a set of capacity intents, each capacity intent within the set of capacity intents corresponding to each pair of PODs within the network, wherein an intent represents the number of logical links between two PODs (401, 402); and determining with one or more computing devices a set of reconfigurations to logical links within each patch panel of the network to generate a second network topology; wherein the second network topology comprises a logical topology for each patch panel in the network, each logical topology corresponding to a pod-level multigraph (910, 920), and in which the summation over all pod-level multigraphs for the second network topology provides for a number of capacity intents that is equal to the received set of capacity intents. determining a first network topology, the first network topology comprising: a first set of physical connections, each physical connection created between a port on a point of delivery, POD, and a port on a patch panel; a first set of logical connections (155, 165, 175, 185) within each patch panel (150, 160, 170, 180) of the network; a first set of physical connections, each physical connection created between a port on a point of delivery, POD, and a port on a patch panel; a first set of logical connections (155, 165, 175, 185) within each patch panel (150, 160, 170, 180) of the network; receiving a set of capacity intents, each capacity intent within the set of capacity intents corresponding to each pair of PODs within the network, wherein an intent represents the number of logical links between two PODs (401, 402); and determining with one or more computing devices a set of reconfigurations to logical links within each patch panel of the network to generate a second network topology; wherein the second network topology comprises a logical topology for each patch panel in the network, each logical topology corresponding to a pod-level multigraph (910, 920), and in which the summation over all pod-level multigraphs for the second network topology provides for a number of capacity intents that is equal to the received set of capacity intents.
A method of characterising an LED device, the method comprising: determining a first value and a second value of a characteristic-resistance Ron, by determining a first and second voltage (Vh, VI) across the LED device whilst a respective first and second current (ih, il) is passing through the device; determining the characteristic-resistance from the ratio of the difference between the first and second voltage, and the first and second current, according to Ron = Vh - Vl / ih - il; and predicting an end of an operational lifetime of the device from the first value and second value of the characteristic-resistance. determining a first value and a second value of a characteristic-resistance Ron, by determining a first and second voltage (Vh, VI) across the LED device whilst a respective first and second current (ih, il) is passing through the device; determining the characteristic-resistance from the ratio of the difference between the first and second voltage, and the first and second current, according to Ron = Vh - Vl / ih - il; and predicting an end of an operational lifetime of the device from the first value and second value of the characteristic-resistance.
Method of measurement of a linear-motion element's absolute position during which a coding element and a sensor move against each other when the linear-motion element changes its position, either the coding element or the sensor is connected with the linear-motion element; the coding element consisting of magnetic and non-magnetic parts positioned alternately in a line, the sensor includes a powered primary winding and a multi-tap measuring secondary winding consisting of a group of secondary coils, the multi-tap measuring secondary winding is magnetically-coupled with said primary winding to generate voltage on the multi-tap secondary winding; wherein on the secondary coils of the sensor a code unequivocally identifying the absolute position of the linear-motion element is generated due to corresponding positions of the magnetic and non-magnetic parts of the coding element against the sensor, characterized by arranging the primary winding in electromagnetically-separated sections, each of the secondary coils of the multi-tap secondary winding consisting of at least two winding parts, each winding part of the secondary coil's winding organized on a different electromagnetically-separated section of the primary winding to allow generating at least three voltage levels on each of the secondary coils in dependence on the positions of magnetic and non-magnetic parts of the coding elements against individual secondary coils of the sensor, corresponding to the specific position of the linear-motion element; the number of the voltage levels created on each secondary coil is related with the number of the winding parts of the secondary coil, each winding part organized on the electromagnetically separated sections of the primary winding, wherein from the voltage levels on every secondary coil of the multi-tap secondary winding a unique combination of the voltage levels on all the secondary coils are formed for every measured position of the linear-motion element, which allows for reducing the number of the secondary coils needed to determine the linear-motion element's absolute position.
Electronic module (10a; 10b; 10c), in particular for a hand-held machine tool, with at least one electronic unit (12a; 12b; 12c), with at least one contacting unit (14a; 14b; 14c) which comprises at least one contact element (16a-16c, 18a-18c, 20a-20c) which has been provided for contacting a source of electrical energy and/or for transmitting electronic data, with at least one energy-store receiving region (72a; 72b; 72c) which is arranged bearing against the contacting unit (14a; 14b; 14c), and with at least one cover unit (24a; 24b; 24c), said electronic unit (12a; 12b; 12c) being connected to the at least one cover unit (24a; 24b; 24c) in captive manner, the energy-store receiving region (72a; 72b; 72c) being arranged on a side (68a; 68b; 68c) of the electronic unit (12a; 12b; 12c) facing away from the cover unit (24a; 24b; 24c), the at least one contacting unit (14a; 14b; 14c) including at least one fixing element (26a; 26b; 26c) which has been provided for mechanical fixing of the cover unit (24a; 24b; 24c) to a tool (36a; 36b; 36c) or to a housing unit (46a; 46b; 46c) of the electronic module (10a; 10b; 10c), said at least one contact element (16a-16c, 18a-18c, 20a-20c) being at least partially arranged on the at least one fixing element (26a, 26b; 26c), and the electronic unit (12a; 12b; 12c) including at least one communication unit (70a; 70b; 70c) for a hard-wired and/or wireless transmission of data with the tool (36a; 36b; 36c) and/or for an exchange of data with an external instrument, characterized in that the at least one contact element (16a-16c, 18a-18c, 20a-20c) is arranged at least partially within a cover wall (42a; 42b; 42c) of the at least one cover unit (24a; 24b; 24c), and, on a side facing away from the electronic unit (12a; 12b; 12c), said cover unit (24a; 24b; 24c) exhibiting a closed surface which extends over the electronic unit (12a; 12b; 12c) and the contacting unit (14a; 14b; 14c).
An exhaust gas system (1, 1') for conveying exhaust gas from an engine (2, 2') to the ambient, the exhaust gas system (1, 1') having an exhaust pipe (10, 10') and a tail pipe (20, 20') wherein the tail pipe (20, 20') is disposed downstream the exhaust pipe (10, 10'), the tail pipe (20, 20') in use being tiltable between a first raised position and a second tilted position such that the tail pipe (20, 20') in both the first raised position and the second tilted position is adapted to convey exhaust gas there through, characterized in that in both the first raised position and the second tilted position an air inlet (30, 30') is provided between the exhaust pipe (10, 10') and the tail pipe (20, 20'), and in that an exhaust gas conveyor (40, 40') is located such that in the second tilted position the exhaust gas conveyor (40, 40') conveys exhaust gas from the exhaust pipe (10, 10') to the tail pipe (20, 20') past the air inlet (30, 30').
A sensor assembly for autonomous vehicles, comprising: a side mirror assembly configured to mount to a vehicle, comprising: a first camera having a field of view in a direction opposite a direction of forward travel of said vehicle; a second camera having a field of view in said direction of forward travel of said vehicle; and a third camera having a field of view in a direction substantially perpendicular to said direction of forward travel of said vehicle, wherein said first camera, said second camera, and said third camera are oriented to provide an uninterrupted camera field of view from said direction of forward travel of said vehicle to a direction opposite said direction of forward travel of said vehicle, and wherein said first and second cameras (104, 106) are configured to a narrow field of view, and said third camera is configured to a wide field of view, characterized in that a center of said field of view of said third camera is within a range of 10° to 30° of a direction perpendicular to said direction of forward travel. a side mirror assembly configured to mount to a vehicle, comprising: a first camera having a field of view in a direction opposite a direction of forward travel of said vehicle; a second camera having a field of view in said direction of forward travel of said vehicle; and a first camera having a field of view in a direction opposite a direction of forward travel of said vehicle; a second camera having a field of view in said direction of forward travel of said vehicle; and a third camera having a field of view in a direction substantially perpendicular to said direction of forward travel of said vehicle, wherein said first camera, said second camera, and said third camera are oriented to provide an uninterrupted camera field of view from said direction of forward travel of said vehicle to a direction opposite said direction of forward travel of said vehicle, and wherein said first and second cameras (104, 106) are configured to a narrow field of view, and said third camera is configured to a wide field of view, characterized in that a center of said field of view of said third camera is within a range of 10° to 30° of a direction perpendicular to said direction of forward travel.
A polymer comprising a temperature-responsive unit in a molecule, wherein the temperature-responsive unit is one comprising azobenzene, diarylethene, a hydroxyl group, a carbonyl bond, an amide bond, or any combinations of these units,wherein the polymer has a refractive index difference (B-A) of 0.01 or greater but 0.2 or less between a minimum refractive index A of the polymer in a temperature range of 5 degrees C or higher but lower than 30 degrees C and a maximum refractive index B of the polymer in a temperature range of 30 degrees C or higher but lower than 50 degrees C, and wherein the polymer has a glass transition temperature of -50 degrees C or higher but lower than 80 degrees C. a temperature-responsive unit in a molecule, wherein the temperature-responsive unit is one comprising azobenzene, diarylethene, a hydroxyl group, a carbonyl bond, an amide bond, or any combinations of these units,wherein the polymer has a refractive index difference (B-A) of 0.01 or greater but 0.2 or less between a minimum refractive index A of the polymer in a temperature range of 5 degrees C or higher but lower than 30 degrees C and a maximum refractive index B of the polymer in a temperature range of 30 degrees C or higher but lower than 50 degrees C, and wherein the polymer has a glass transition temperature of -50 degrees C or higher but lower than 80 degrees C.
An MI, magneto-impedance type, magnetic field sensor comprising a pulse current source or high frequency current source for applying an electrical pulse current or high frequency current, an amorphous wire in which a voltage is generated in response to an external magnetic field intensity around the amorphous wire by applying the electrical pulse current or high frequency current to the amorphous wire, and a direct current source for applying a direct current to the amorphous wire, characterised in that the direct current source is connected in parallel to the pulse current source or high frequency current source, and the MI magnetic field sensor is configured that the direct current, which allows for restraining the occurrence of pulse noise at nT level, is applied to the amorphous wire from the direct current source, and a bias current is superposed to the electrical pulse current or high frequency current applied to the amorphous wire by applying the direct current to the amorphous wire, in order to avoid a free state where nothing enforces the magnetization in the circumferential direction within the amorphous wire. a pulse current source or high frequency current source for applying an electrical pulse current or high frequency current, an amorphous wire in which a voltage is generated in response to an external magnetic field intensity around the amorphous wire by applying the electrical pulse current or high frequency current to the amorphous wire, and a direct current source for applying a direct current to the amorphous wire, characterised in that the direct current source is connected in parallel to the pulse current source or high frequency current source, and the MI magnetic field sensor is configured that the direct current, which allows for restraining the occurrence of pulse noise at nT level, is applied to the amorphous wire from the direct current source, and a bias current is superposed to the electrical pulse current or high frequency current applied to the amorphous wire by applying the direct current to the amorphous wire, in order to avoid a free state where nothing enforces the magnetization in the circumferential direction within the amorphous wire.
Method for the low-noise operation of an electrical machine, which is provided especially for driving vehicles, in particular submarines, comprising a stator, which has a number of coils, and a number of converters (10a, 10b) for supplying current to the coils, characterised in that a first current (I 1), which has a fundamental oscillation with superimposed harmonic components is supplied to the assigned coils with a respective phase offset by means of a first group of converters, and at the same time a second inverted current (I 2) which is modified with respect to the harmonic components of the first current (I 1) is supplied to the assigned coils by means of a second group of converters, wherein an active noise compensation is generated by means of the inverted flow of current.
Method of manufacturing a plastic frame for a two-wheeler having at least one hollow space in the interior by means of plastic injection molding, said method comprising the following steps: - injecting a thermoplastic plastic melt into a closed injection molding tool; - injecting at least one fluid to displace the plastic core from the component cavity; and - at least briefly maintaining the fluid pressure in the component interior, characterized in that a plurality of fluids are injected into the injection molding tool and their individual fluid volume flows or pressure/time profiles are regulated separately from one another; a correspondingly shaped core is inserted during the injection molding process in the region of at least one part to be integrated into the plastic frame such as a motor and/or a storage battery such that this region is hollow after the component demolding; and at least one part to be integrated into the plastic frame, such as a steering head bearing and/or a bottom bracket bearing, are inserted into the injection molding tool, are held in the injection molding tool by means of an apparatus and are overmolded with plastic. - injecting a thermoplastic plastic melt into a closed injection molding tool; - injecting at least one fluid to displace the plastic core from the component cavity; and - at least briefly maintaining the fluid pressure in the component interior, a plurality of fluids are injected into the injection molding tool and their individual fluid volume flows or pressure/time profiles are regulated separately from one another; a correspondingly shaped core is inserted during the injection molding process in the region of at least one part to be integrated into the plastic frame such as a motor and/or a storage battery such that this region is hollow after the component demolding; and at least one part to be integrated into the plastic frame, such as a steering head bearing and/or a bottom bracket bearing, are inserted into the injection molding tool, are held in the injection molding tool by means of an apparatus and are overmolded with plastic.
A gas leakage containment device (10, 20) at an outer diameter change area of a circular section duct of a gas insulated electrical substation or a gas insulated high voltage circuit breaker, comprising: - a first diameter transition ring to be sealingly mounted on a first portion of said conduit; - covering means, characterised in that it comprises: - a second diameter transition ring for sealingly mounting on a second portion of said conduit having an outer diameter (12.1) different from that (11.1) of said first conduit portion, said second diameter transition ring having an outer diameter substantially identical to that of said first diameter transition ring, the covering means for at least partially enclosing said outer diameter change area being configured so as to be sealably mountable on the outer annular contour of said first transition ring and on the outer annular contour of said second transition ring; - means for sealing the mounting area between said first diameter transition ring and said first portion of said conduit, the mounting area between said second ring and said second portion of said conduit and the mounting area between said covering means and said diameter transition rings. - a first diameter transition ring to be sealingly mounted on a first portion of said conduit; - covering means, - a second diameter transition ring for sealingly mounting on a second portion of said conduit having an outer diameter (12.1) different from that (11.1) of said first conduit portion, said second diameter transition ring having an outer diameter substantially identical to that of said first diameter transition ring, the covering means for at least partially enclosing said outer diameter change area being configured so as to be sealably mountable on the outer annular contour of said first transition ring and on the outer annular contour of said second transition ring; - means for sealing the mounting area between said first diameter transition ring and said first portion of said conduit, the mounting area between said second ring and said second portion of said conduit and the mounting area between said covering means and said diameter transition rings.
A staple cartridge assembly for use with a surgical stapling instrument, wherein said staple cartridge assembly is configured to receive a firing actuation such that, upon receiving the firing actuation, a firing assembly is configured to translate through said staple cartridge assembly from a proximal end to a distal end during a firing progression, and wherein said staple cartridge assembly comprises: a cartridge body; a plurality of staples removably stored within said cartridge body; and an implantable adjunct, comprising: a body portion; and a plurality of distinct attachment portions configured to retain said implantable adjunct against said cartridge body, wherein the firing assembly is configured to engage each said attachment portion during the firing progression, and wherein said attachment portions are progressively released from said cartridge body during the advancement of the firing assembly from the proximal end to the distal end, wherein said cartridge body comprises a slot, wherein the firing assembly comprises a release portion configured to engage said attachment portions to release said implantable adjunct from said cartridge body as the firing assembly advances from the proximal end to the distal end, characterised in that said attachment portions are positioned adjacent said slot. a cartridge body; a plurality of staples removably stored within said cartridge body; and an implantable adjunct, comprising: a body portion; and a plurality of distinct attachment portions configured to retain said implantable adjunct against said cartridge body, wherein the firing assembly is configured to engage each said attachment portion during the firing progression, and wherein said attachment portions are progressively released from said cartridge body during the advancement of the firing assembly from the proximal end to the distal end, a body portion; and a plurality of distinct attachment portions configured to retain said implantable adjunct against said cartridge body, wherein the firing assembly is configured to engage each said attachment portion during the firing progression, and wherein said attachment portions are progressively released from said cartridge body during the advancement of the firing assembly from the proximal end to the distal end, wherein said cartridge body comprises a slot, wherein the firing assembly comprises a release portion configured to engage said attachment portions to release said implantable adjunct from said cartridge body as the firing assembly advances from the proximal end to the distal end, characterised in that said attachment portions are positioned adjacent said slot.
A three-dimensional image acquisition device comprising: at least two separate systems, each including a projector and four cameras, said at least two projectors being aligned along a direction (x) and capable of illuminating a scene, the projection axes of the projectors defining a plane; the device being such as, for each projector and facing the scene, the first and the second cameras (24, 26) are placed on one side of said plane and the third and the fourth cameras (24', 26') are placed on another side of said plane, the optical axis of the first and second cameras (24, 26) respectively forming with said plane a first and a second different angles, the optical axis of the third and fourth cameras (24', 26') respectively forming with said plane a third and a fourth different angles; and the device further including blue-, red-, green-, or white-colored alternated illumination devices. at least two separate systems, each including a projector and four cameras, said at least two projectors being aligned along a direction (x) and capable of illuminating a scene, the projection axes of the projectors defining a plane; the device being such as, for each projector and facing the scene, the first and the second cameras (24, 26) are placed on one side of said plane and the third and the fourth cameras (24', 26') are placed on another side of said plane, the optical axis of the first and second cameras (24, 26) respectively forming with said plane a first and a second different angles, the optical axis of the third and fourth cameras (24', 26') respectively forming with said plane a third and a fourth different angles; and the device further including blue-, red-, green-, or white-colored alternated illumination devices.