mhurhangee/ep-ind-claims huggingface dataset:
A sliding component wherein: a plurality of dimples are provided independently in the circumferential direction on one sealing face of the sliding component, said sliding component being adapted to be part of a pair of sliding components (3,5) relatively sliding to each other, each of the dimples has a cavitation formation region and a positive pressure generation region which are communicated with each other, the cavitation formation region is disposed on an upstream side of each dimple closer to a low-pressure fluid side, the positive pressure generation region is disposed on a downstream side of each dimple closer to a high-pressure fluid side, and an edge on the low-pressure fluid side of the positive pressure generation region is formed into a tapered shape inclined with respect to the rotating direction of the other sealing face toward the high-pressure fluid side from the low-pressure fluid side and is smoothly connected to an edge on the low-pressure fluid side of the cavitation formation region, characterised in that: the cavitation formation region extends with a constant width in the circumferential direction so as to form an arc shape, and the positive pressure generation region extends so as to be inclined with respect to the rotating direction of the other sealing face toward the high-pressure fluid side from the cavitation formation region. a plurality of dimples are provided independently in the circumferential direction on one sealing face of the sliding component, said sliding component being adapted to be part of a pair of sliding components (3,5) relatively sliding to each other, each of the dimples has a cavitation formation region and a positive pressure generation region which are communicated with each other, the cavitation formation region is disposed on an upstream side of each dimple closer to a low-pressure fluid side, the positive pressure generation region is disposed on a downstream side of each dimple closer to a high-pressure fluid side, and an edge on the low-pressure fluid side of the positive pressure generation region is formed into a tapered shape inclined with respect to the rotating direction of the other sealing face toward the high-pressure fluid side from the low-pressure fluid side and is smoothly connected to an edge on the low-pressure fluid side of the cavitation formation region, characterised in that: the cavitation formation region extends with a constant width in the circumferential direction so as to form an arc shape, and the positive pressure generation region extends so as to be inclined with respect to the rotating direction of the other sealing face toward the high-pressure fluid side from the cavitation formation region. the cavitation formation region extends with a constant width in the circumferential direction so as to form an arc shape, and the positive pressure generation region extends so as to be inclined with respect to the rotating direction of the other sealing face toward the high-pressure fluid side from the cavitation formation region.
A biodegradable polymer mixture comprising i) 40% to 95% by weight, based on the total weight of components i to ii, of at least one polyester based on aliphatic and aromatic dicarboxylic acids and aliphatic dihydroxy compounds; ii) 5% to 60% by weight, based on the total weight of said components i to ii, of polyalkylene carbonate, particularly polypropylene carbonate; iii) 0% to 60% by weight, based on the total weight of said components i to iii, of at least one biodegradable homo- or copolyester selected from the group consisting of polylactic acid, polycaprolactone and polyhydroxyalkanoate, and/or of an inorganic or organic filler; iv) 0.1% to 5% by weight, based on the total weight of said components i to ii, of an epoxy-containing copolymer based on styrene, acrylic ester and/or methacrylic ester, and v) 0% to 15% by weight of an additive. i) 40% to 95% by weight, based on the total weight of components i to ii, of at least one polyester based on aliphatic and aromatic dicarboxylic acids and aliphatic dihydroxy compounds; ii) 5% to 60% by weight, based on the total weight of said components i to ii, of polyalkylene carbonate, particularly polypropylene carbonate; iii) 0% to 60% by weight, based on the total weight of said components i to iii, of at least one biodegradable homo- or copolyester selected from the group consisting of polylactic acid, polycaprolactone and polyhydroxyalkanoate, and/or of an inorganic or organic filler; iv) 0.1% to 5% by weight, based on the total weight of said components i to ii, of an epoxy-containing copolymer based on styrene, acrylic ester and/or methacrylic ester, and v) 0% to 15% by weight of an additive.
A method, comprising: determining a topological profile of individual nodes in a shared-media communication network, wherein the network uses a directed acyclic graph, DAG, for routing packets; determining a respective likelihood of the nodes in the network to become a root of a floating topology based on the topological profiles, wherein the floating topology is a sub-topology of a main topology that is disconnected from the main topology; and providing instructions to nodes in the network involved in the formation of the floating topology based on the respective likelihoods; wherein the provided instructions comprise at least one of: instructions to activate a keepalive exchange; and instructions to modify a routing topology to avoid nodes. instructions to activate a keepalive exchange; and instructions to modify a routing topology to avoid nodes.
Stator for an electrical rotating machine, which stator has a stator laminated core with coil bars and has at least one winding head board, wherein the at least one winding head board rests on an end side of the stator laminated core, wherein the winding head board has a main body comprising a first dielectric material, wherein conductor tracks (26, 26a, 26b) which are connected to the coil bars are integrated into the winding head board, and wherein the winding head board has a region comprising a second dielectric material, wherein the second dielectric material has a higher thermal conductivity than the first dielectric material of the main body, wherein the region comprising the second dielectric material is arranged between at least one conductor track (26, 26a, 26b) and the stator laminated core in such a way that heat can be transmitted between the at least one conductor track (26, 26a, 26b) and the stator laminated core by means of the second dielectric material, characterized in that a further region comprising the second dielectric material is arranged between at least one conductor track (26, 26a, 26b) and one side of the winding head board, on which a machine housing of the electrical rotating machine rests when the stator is installed in the electrical machine, in such a way that heat can be transmitted between the at least one conductor track (26, 26a, 26b) and the machine housing via the second dielectric material, wherein the second dielectric material contains aluminium nitride and/or beryllium oxide. which stator has a stator laminated core with coil bars and has at least one winding head board, wherein the at least one winding head board rests on an end side of the stator laminated core, wherein the winding head board has a main body comprising a first dielectric material, wherein conductor tracks (26, 26a, 26b) which are connected to the coil bars are integrated into the winding head board, and wherein the winding head board has a region comprising a second dielectric material, wherein the second dielectric material has a higher thermal conductivity than the first dielectric material of the main body, wherein the region comprising the second dielectric material is arranged between at least one conductor track (26, 26a, 26b) and the stator laminated core in such a way that heat can be transmitted between the at least one conductor track (26, 26a, 26b) and the stator laminated core by means of the second dielectric material, characterized in that a further region comprising the second dielectric material is arranged between at least one conductor track (26, 26a, 26b) and one side of the winding head board, on which a machine housing of the electrical rotating machine rests when the stator is installed in the electrical machine, in such a way that heat can be transmitted between the at least one conductor track (26, 26a, 26b) and the machine housing via the second dielectric material, wherein the second dielectric material contains aluminium nitride and/or beryllium oxide.
Household appliance, having an electrical motor, power electronics provided to supply the electrical motor with electrical energy for operation of the electrical motor and an electrical cable connecting the power electronics with the electrical motor, characterised in that the electrical cable has a number of insulated wires, which are provided to supply the electrical motor with the electrical energy for operation of the electrical motor, a metallised film encasing the insulated wires as a whole, and a cable casing encasing the metallised film with a length I, wherein the electrical cable has an earthing wire, which, with the insulated wires, is encased by the metallised film, wherein the earthing wire is connected in a conducting manner with the metallised film.
Device for propelling a diphasic mixture including at least one gas and one liquid comprising: - a cavity containing a liquid, - at least one first module having a pressurised gas inlet and a first gas outlet towards an inlet of the cavity, - a second module for mixing the gas and liquid, - said first module comprising a second gas outlet towards a first inlet of the second module, said second module comprising a second liquid inlet coupled to a liquid outlet of the cavity, - the second module comprising at least one outlet for the diphasic mixture, characterised in that the first and second modules (M1, M2) form a one-piece casing attachable to the inlet and the outlet of the cavity. - a cavity containing a liquid, - at least one first module having a pressurised gas inlet and a first gas outlet towards an inlet of the cavity, - a second module for mixing the gas and liquid, - said first module comprising a second gas outlet towards a first inlet of the second module, said second module comprising a second liquid inlet coupled to a liquid outlet of the cavity, - the second module comprising at least one outlet for the diphasic mixture,
A light emitting diode comprising: a support electrode including a metal having a high flexibility and including a first region and a second region disposed around the first region with a thickness thinner than a thickness of the first region; a protective member over the second region of the support electrode; a reflective layer over the support electrode; and a light emitting structure located over the reflective layer and the protective member, the light emitting structure including a first conductive semiconductor layer, a second conductive semiconductor layer, and an active layer interposed between the first and second conductive semiconductor layers, characterized in that the support electrode comprises a curved surface recessed inward at a lateral side of the support electrode. a support electrode including a metal having a high flexibility and including a first region and a second region disposed around the first region with a thickness thinner than a thickness of the first region; a protective member over the second region of the support electrode; a reflective layer over the support electrode; and a light emitting structure located over the reflective layer and the protective member, the light emitting structure including a first conductive semiconductor layer, a second conductive semiconductor layer, and an active layer interposed between the first and second conductive semiconductor layers, characterized in that the support electrode comprises a curved surface recessed inward at a lateral side of the support electrode.
A battery state detecting method for estimating at least a quantity of a state of a battery selected from the group consisting of a residual capacity and a level of depletion of the battery, wherein the method comprises the steps of preparing a reference relaxation function F(t) that approximates a variation ΔV (t) of an open circuit voltage of the battery after an elapsed time t since the battery has stopped to discharge/charge as a function of a predetermined quantity of a state of the battery; measuring the variation ΔV (t) of the open circuit voltage of the battery from an open circuit voltage (OCVs) during a stable time after fully elapsing a time since the battery has stopped to discharge/charge; forming a relaxation function F n (t) that approximates the variation ΔV (t) of the open circuit voltage based on a sum of at least two reaction speed specific relaxation functions fi(t); and estimating the quantity of state of the battery after the completion of the charge or the discharge based on the relaxation function F n (t) and the reference relaxation function F (t).
A method of wireless communication by a user equipment, UE, the method comprising: determining that the UE is scheduled to transition from a first power state to a second power state in association with a discontinuous reception cycle, the second power state being lower than the first power state; determining that the first power state of the UE is to be extended, wherein the determination that the first power state of the UE is to be extended is based on expiration of a timer, and the method further comprises: transmitting a request; starting the timer after the transmission of the request; and detecting that no response to the request is received before the expiration of the timer; and autonomously extending the first power state through transmission of a transaction based on the determination that the first power state of the UE is to be extended. determining that the UE is scheduled to transition from a first power state to a second power state in association with a discontinuous reception cycle, the second power state being lower than the first power state; determining that the first power state of the UE is to be extended, wherein the determination that the first power state of the UE is to be extended is based on expiration of a timer, and the method further comprises: transmitting a request; starting the timer after the transmission of the request; and detecting that no response to the request is received before the expiration of the timer; and transmitting a request; starting the timer after the transmission of the request; and detecting that no response to the request is received before the expiration of the timer; and autonomously extending the first power state through transmission of a transaction based on the determination that the first power state of the UE is to be extended.
A multimodal linear low density polyethylene (LLDPE) which has been grafted with an acidic grafting agent to form a grafted LLDPE (g-LLDPE), wherein said LLDPE is a copolymer of ethylene and at least one α-olefin comonomer, wherein the density of said LLDPE is in the range 915 to 950 kg/m 3, preferably 918 to 940 kg/m 3, wherein said LLDPE is prepared using a Ziegler-Natta catalyst and wherein said LLDPE has an MFR 2 of 0.05 to 50 g/10 min, preferably 0.05 to 10 g/lOmin.
An electrolyte additive composition comprising: a borate-based lithium compound represented by Formula 1; and a non-lithiated additive, wherein the non-lithiated additive comprises a sulfate-based compound, and the electrolyte additive composition does not comprise a phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen or sulfur. a borate-based lithium compound represented by Formula 1; and a non-lithiated additive, wherein the non-lithiated additive comprises a sulfate-based compound, and the electrolyte additive composition does not comprise a phosphate-based compound: wherein, in Formula 1, Y 1 to Y 4 are each independently oxygen or sulfur.
A sensor node that is configured to be installed among a plurality of sensor nodes in an installation area and processes data of each installation site, the sensor node comprising: a processor configured to generate self-identification information for identifying the sensor node among the plurality of the sensor nodes and comprising a combination of sets of paired calibration node identification information and self-identification generation information, each set included in calibration information received from each of the plurality of calibration nodes respectively, the calibration node identification information identifying the respective calibration node among the plurality of calibration nodes, and the self-identification generation information indicating a distance of the sensor node from the respective calibration node; a memory device configured to retain the generated self-identification information; and a wireless communications unit configured to receive the calibration information from the plurality of calibration nodes and to perform transmission and reception of the data with an adjacent sensor node provided in the installation area. a processor configured to generate self-identification information for identifying the sensor node among the plurality of the sensor nodes and comprising a combination of sets of paired calibration node identification information and self-identification generation information, each set included in calibration information received from each of the plurality of calibration nodes respectively, the calibration node identification information identifying the respective calibration node among the plurality of calibration nodes, and the self-identification generation information indicating a distance of the sensor node from the respective calibration node; a memory device configured to retain the generated self-identification information; and a wireless communications unit configured to receive the calibration information from the plurality of calibration nodes and to perform transmission and reception of the data with an adjacent sensor node provided in the installation area.
Method for the continuous production of precipitated calcium carbonate by means of the temperature-controlled reaction of a suspension consisting essentially of calcium hydroxide and water with carbon dioxide-containing gases, wherein the suspension and the carbon dioxide-containing gases are conveyed through a reaction chamber (1; 101; 201), which only comprises openings to the inlet side (4; 105; 205) and outlet side, and in which the aqueous suspension and the carbon dioxide-containing gases are accelerated as a reaction mixture to circumferential speeds of more than 5 metres per second, characterised in that the reaction chamber (1; 101; 201) is designed in the form of a centrifugal pump, the impeller of which forms the rotating device, whereby between the inlet side and the outlet side of the reaction chamber (1; 101; 201) a pressure difference is established of more than 200 mbar and whereby the suspension and the carbon dioxide-containing gases are mixed intensively and conveyed at the same time through the reaction chamber (1; 101; 201) and guided on the outlet side through a pressure section (9; 106; 206).
A method for programming a remote control comprising the steps of: - Selecting the device to be remotely controlled with the remote control; - Reading metadata identifying the device; - Transmitting the metadata to an external database; - Selecting code sets matching the device in the database; - Transmitting at least one selected code set to the remote control; and - Sending an acknowledgment signal to the database, when the selected code set properly matches the device to be remotely controlled; characterized by the following steps: - filtering the meta-data in the external database in order to generate "fingerprints", that describe a model of the identified device but not the identified device; - assigning the "fingerprints" to the multiple code sets stored in the database according to probability weighting, wherein the probability weighting considers a time difference between the current query and queries previously confirmed by the confirmation signal as well as a frequency of the previous queries that are acknowledged with the acknowledgment signal; and - transmitting the multiple code sets to the remote control in a sequence sorted by probability weighting. - Selecting the device to be remotely controlled with the remote control; - Reading metadata identifying the device; - Transmitting the metadata to an external database; - Selecting code sets matching the device in the database; - Transmitting at least one selected code set to the remote control; and - Sending an acknowledgment signal to the database, when the selected code set properly matches the device to be remotely controlled; - filtering the meta-data in the external database in order to generate "fingerprints", that describe a model of the identified device but not the identified device; - assigning the "fingerprints" to the multiple code sets stored in the database according to probability weighting, wherein the probability weighting considers a time difference between the current query and queries previously confirmed by the confirmation signal as well as a frequency of the previous queries that are acknowledged with the acknowledgment signal; and - transmitting the multiple code sets to the remote control in a sequence sorted by probability weighting.
Carbon body, which is produced by calcining a mixture that contains at least coke, characterised in that the coke has a degree of graphitisation in accordance with Maire and Mehring after heat treatment of the coke at 2800°C, calculated from the average layer spacing c/2, of 0.5 or less, and in that the grain size of the coke, which has a spherical morphology, is greater than 0.5 mm.
A method of isolating a metallic support component from a silicon-comprising composite component in a gas turbine engine, the method comprising applying a precursor coating onto the metallic support component, mounting the silicon-comprising composite component so that the silicon-comprising composite component engages the precursor coating applied to the metallic support component to form an engine assembly, and heating the precursor coating to a predetermined temperature to form a dual layer barrier coating on the metallic support component, the dual layer barrier coating comprising an oxide layer along an exterior edge of a base layer from the precursor coating so that silicon in the silicon-comprising composite component is restricted from ingress into the metallic support component by the oxide-comprising layer during further operation of the gas turbine engine, characterized in that: the precursor coating includes between 1 weight percent and 60 weight percent of a refractory metal selected from the group consisting of molybdenum, tungsten, and tantalum.