mhurhangee/ep-ind-claims huggingface dataset:
A method for providing wave-based lighting efficiencies, the method comprising: determining, by a computing device, a zero axis point (422a-422e) of a voltage from an AC voltage waveform (220, 220a) configured to power a load, wherein the load has a first predetermined portion with a first voltage rating, and wherein the AC voltage waveform includes positive voltage portions, negative voltage portions, and zero axis points (422a - 422e); determining, by the computing device, a first position in the AC voltage waveform (220, 220a) to be used to create a first voltage step with a first step voltage, characterized in that the first position in the AC voltage waveform (220, 220a) is determined by: predicting a time from the zero axis point (422a - 422e) where the AC voltage waveform (220, 220a) will reach the first voltage rating defining the first step voltage; wherein the method further comprises: creating, by the computing device, the first voltage step based on the predicted time from the zero axis point (422a - 422e); and applying, by the computing device, the AC voltage at the first voltage step to the first predetermined portion of the load. determining, by a computing device, a zero axis point (422a-422e) of a voltage from an AC voltage waveform (220, 220a) configured to power a load, wherein the load has a first predetermined portion with a first voltage rating, and wherein the AC voltage waveform includes positive voltage portions, negative voltage portions, and zero axis points (422a - 422e); determining, by the computing device, a first position in the AC voltage waveform (220, 220a) to be used to create a first voltage step with a first step voltage, characterized in that the first position in the AC voltage waveform (220, 220a) is determined by: predicting a time from the zero axis point (422a - 422e) where the AC voltage waveform (220, 220a) will reach the first voltage rating defining the first step voltage; wherein the method further comprises: creating, by the computing device, the first voltage step based on the predicted time from the zero axis point (422a - 422e); and applying, by the computing device, the AC voltage at the first voltage step to the first predetermined portion of the load. predicting a time from the zero axis point (422a - 422e) where the AC voltage waveform (220, 220a) will reach the first voltage rating defining the first step voltage; wherein the method further comprises: creating, by the computing device, the first voltage step based on the predicted time from the zero axis point (422a - 422e); and applying, by the computing device, the AC voltage at the first voltage step to the first predetermined portion of the load. creating, by the computing device, the first voltage step based on the predicted time from the zero axis point (422a - 422e); and applying, by the computing device, the AC voltage at the first voltage step to the first predetermined portion of the load.
A reactor module for Fischer-Tropsch synthesis comprising a generally rectangular reactor block (10, 110) comprising a stack of plates defining a multiplicity of first and second flow channels (15; 17, 117) arranged alternately in the block (10, 110), for carrying first and second fluids respectively, the first fluid being a gas mixture which undergoes Fischer-Tropsch synthesis, and the second fluid being a coolant fluid; wherein the first flow channels (17, 117) extend in a generally vertical direction between upper and lower faces of the reactor block (10, 110); and wherein the second flow channels extend in directions generally parallel to those of the first flow channels (17, 117), and so in a generally vertical direction, and communicate through horizontally-extending distributor chambers with inlet and outlet ports (28, 30) at one or more side faces of the reactor block (10, 110); the second flow channels are defined between successive flat plates that are spaced apart by edge strips and by corrugated sheets; and wherein each first flow channel (17, 117) contains a removable gas-permeable catalyst structure (20, 120) incorporating a metal substrate.
Sintered product having a chemical analysis such that, as percentages by weight on the basis of the oxides, - ZrO 2 partially stabilized with CeO 2 and Y 2 O 3: balance to 100%, - Al 2 O 3: > 10% and < 19% - additive chosen from CaO, manganese oxides, ZnO, SrO, copper oxides, BaO, iron oxides, and mixtures thereof: 0.2 - 6%, - impurities: < 2%, CeO 2 and Y 2 O 3 being present in amounts such that, as a molar percentage on the basis of the sum of ZrO 2, CeO 2 and Y 2 O 3, - CeO 2: ≥ 2.5 mol% and < 5.5 mol% - Y 2 O 3: 0.5 - 2 mol%. - ZrO 2 partially stabilized with CeO 2 and Y 2 O 3: balance to 100%, - Al 2 O 3: > 10% and < 19% - additive chosen from CaO, manganese oxides, ZnO, SrO, copper oxides, BaO, iron oxides, and mixtures thereof: 0.2 - 6%, - impurities: < 2%, CeO 2 and Y 2 O 3 being present in amounts such that, as a molar percentage on the basis of the sum of ZrO 2, CeO 2 and Y 2 O 3, - CeO 2: ≥ 2.5 mol% and < 5.5 mol% - Y 2 O 3: 0.5 - 2 mol%.
Liquid cooling system for cooling at least one electrical component, the liquid cooling system comprising: - a cooling circuit having an inlet flow line, a return flow line, and at least one supply branch for supplying liquid coolant to an electrical component; and - at least one deaeration line to provide a connection between a high point and a junction point of the cooling circuit to bypass a part of the cooling circuit; wherein the high point constitutes a geodetically or locally highest point of the at least one supply branch; characterized in that the junction point is provided on the return flow line downstream of the at least one supply branch; wherein the pressure of the liquid coolant is lower in the junction point than in the high point during circulation of the liquid coolant in the liquid cooling system. - a cooling circuit having an inlet flow line, a return flow line, and at least one supply branch for supplying liquid coolant to an electrical component; and - at least one deaeration line to provide a connection between a high point and a junction point of the cooling circuit to bypass a part of the cooling circuit; wherein the high point constitutes a geodetically or locally highest point of the at least one supply branch; characterized in that the junction point is provided on the return flow line downstream of the at least one supply branch; wherein the pressure of the liquid coolant is lower in the junction point than in the high point during circulation of the liquid coolant in the liquid cooling system.
A hinge assembly comprising a hollow chamber profile, a hinge arranged thereon, and an intermediate piece, which is made of a cuboid or sheet metal-shaped base body and which is arranged between the hinge and the hollow chamber profile, wherein the intermediate piece is held on the hollow chamber profile by means of exactly one holding screw, wherein the hinge has pins, which engage through assigned openings of the intermediate piece and engage with recesses of the hollow chamber profile, wherein the hinge is fastened to the hollow chamber profile by means of at least two fastening screws, which engage through assigned adapted internal threads of the intermediate piece.
An electrode comprising a current collector and a polymeric layer adhered to a surface of the current collector, the polymeric layer comprising a crosslinked matrix formed of a functionalized rubber polymer, the crosslinked matrix comprising a reacted electron beam or actinic radiation curable crosslinking agent covalently bonded to the functionalized rubber polymer, the polymeric layer further comprising electrode particulate material, wherein the polymeric layer is conductive; and wherein the functionalized rubber polymer includes at least one of isoprene, butadiene, cyclopentadiene, ethylidene norbornene, vinyl norbornene monomer units, or combinations thereof.
An implantable medical system comprising: a lead; a radiopaque marker; and a structure that affixes the radiopaque marker in a fixed position relative to the lead on an outside surface of the lead in proximity to a proximal end of the lead; characterized in that the radiopaque marker comprises a coil having multiple turns. a lead; a radiopaque marker; and a structure that affixes the radiopaque marker in a fixed position relative to the lead on an outside surface of the lead in proximity to a proximal end of the lead;
Composition, especially a cosmetic composition, for making up and/or caring for keratin materials, in particular the skin and/or the lips, and keratin fibres, especially the eyebrows, comprising: - at least one aqueous phase gelled with at least one synthetic polymeric hydrophilic gelling agent chosen from 2-acrylamido-2-methylpropanesulfonic acid polymers and copolymers; and - at least one oily phase gelled with at least one lipophilic gelling agent chosen from organopolysiloxane elastomers; said phases forming therein a macroscopically homogeneous mixture; said composition also comprising at least one hydrophobic film-forming polymer chosen from block ethylenic polymers, vinyl polymers comprising at least one carbosiloxane dendrimer derivative and silicone resins (T resin, MQ resin). - at least one aqueous phase gelled with at least one synthetic polymeric hydrophilic gelling agent chosen from 2-acrylamido-2-methylpropanesulfonic acid polymers and copolymers; and - at least one oily phase gelled with at least one lipophilic gelling agent chosen from organopolysiloxane elastomers;
An aerosol generating device configured to use an aerosol forming substance to generate an aerosol for inhalation by a user, comprising: a wireless communication interface configured to communicate wirelessly with a previously paired user electronic device; a controller configured to enable the generation of an aerosol when the wireless communication interface has established through a search, based on the receipt of a MAC address of the previously paired user electronic device, that a wireless link with the previously paired user electronic device is available; a chamber for receiving a consumable comprising the aerosol forming substance; a lid configured to be moved from a first position, in which the chamber is closed by the lid, to a second position, in which the chamber is open; and a sensor configured to detect an action performed by the user involving the manipulation of the lid to enable the aerosol generating device to receive the consumable, wherein, the wireless communication interface is configured to, in response to detecting the action, be triggered to search for a wireless link with the previously paired user electronic device, and wherein the sensor is configured to detect when the lid is in one of the first position or the second position. a wireless communication interface configured to communicate wirelessly with a previously paired user electronic device; a controller configured to enable the generation of an aerosol when the wireless communication interface has established through a search, based on the receipt of a MAC address of the previously paired user electronic device, that a wireless link with the previously paired user electronic device is available; a chamber for receiving a consumable comprising the aerosol forming substance; a lid configured to be moved from a first position, in which the chamber is closed by the lid, to a second position, in which the chamber is open; and a sensor configured to detect an action performed by the user involving the manipulation of the lid to enable the aerosol generating device to receive the consumable, wherein, the wireless communication interface is configured to, in response to detecting the action, be triggered to search for a wireless link with the previously paired user electronic device, and wherein the sensor is configured to detect when the lid is in one of the first position or the second position.
A method of testing an aircraft collision avoidance system, the system being configured to process an input to produce an output, the method comprising: providing a set of inputs for the system; at least once performing a genetic algorithm, thereby generating a new set of inputs, the genetic algorithm comprising steps (i) to (iv) wherein: step (i) comprises, for each input, processing, using the system, that input to produce a corresponding output; step (ii) comprises, for each input, determining, using one or more processors operatively coupled to the system, for the output that corresponds to that input, an aircraft separation distance; step (iii) comprises selecting a subset of the inputs that correspond to minimum separation distances; and step (iv) comprises, using the selected subset of inputs generating, by the one or more processors, a new set of inputs; and thereafter, displaying the most recent generation of inputs. providing a set of inputs for the system; at least once performing a genetic algorithm, thereby generating a new set of inputs, the genetic algorithm comprising steps (i) to (iv) wherein: step (i) comprises, for each input, processing, using the system, that input to produce a corresponding output; step (ii) comprises, for each input, determining, using one or more processors operatively coupled to the system, for the output that corresponds to that input, an aircraft separation distance; step (iii) comprises selecting a subset of the inputs that correspond to minimum separation distances; and step (iv) comprises, using the selected subset of inputs generating, by the one or more processors, a new set of inputs; and step (i) comprises, for each input, processing, using the system, that input to produce a corresponding output; step (ii) comprises, for each input, determining, using one or more processors operatively coupled to the system, for the output that corresponds to that input, an aircraft separation distance; step (iii) comprises selecting a subset of the inputs that correspond to minimum separation distances; and step (iv) comprises, using the selected subset of inputs generating, by the one or more processors, a new set of inputs; and thereafter, displaying the most recent generation of inputs.
A composition for optical materials, comprising: a polyolefin obtained by (co) polymerizing at least one kind of olefin selected from propylene, 1-butene, 1-pentene, 3-methyl-1-butene, 2-methyl-1-butene, 1-hexene, 4-methyl-1-pentene, 3-methyl-1-pentene, 2-methyl-1-pentene, 1-octene, 1-decene, 1-dodecene, 1-tetradecene, 1-hexadecene, 1-octadecene, and 1-eicosene; and a photochromic compound. a polyolefin obtained by (co) polymerizing at least one kind of olefin selected from propylene, 1-butene, 1-pentene, 3-methyl-1-butene, 2-methyl-1-butene, 1-hexene, 4-methyl-1-pentene, 3-methyl-1-pentene, 2-methyl-1-pentene, 1-octene, 1-decene, 1-dodecene, 1-tetradecene, 1-hexadecene, 1-octadecene, and 1-eicosene; and a photochromic compound.
A device for detecting a physical link, comprising: a detection signal sending module, which is used to: send a detection signal to a detected end, wherein the detection signal includes a detection sequence and the detection sequence includes a sequence header identifier and an equipment port number; a detection signal receiving module, which is used to: receive a returned detection signal after the detected end performs a first processing on the detection signal by means of bitwise NOT; a detection signal processing module, which is used to: perform a second processing by means of the bitwise NOT on the returned detection signal returned by the detected end, and send a re-processed detection signal to a detecting module; and the detecting module, which is used to: detect whether a sequence header identifier included in the re-processed detection signal is the same as the sequence header identifier included in the detection signal sent by the detection signal sending module and whether an equipment port number included in the re-processed detection signal is the same as the equipment port number included in the detection signal sent by the detection signal sending module, and then determine a failure type of a physical link according to a detection result, wherein the failure type of the physical link includes: an open circuit in the physical link, a short circuit or a loopback in the physical link, unpaired receiving and sending in the physical link, and a loopback with unpaired receiving and sending in the physical link. a detection signal sending module, which is used to: send a detection signal to a detected end, wherein the detection signal includes a detection sequence and the detection sequence includes a sequence header identifier and an equipment port number; a detection signal receiving module, which is used to: receive a returned detection signal after the detected end performs a first processing on the detection signal by means of bitwise NOT; a detection signal processing module, which is used to: perform a second processing by means of the bitwise NOT on the returned detection signal returned by the detected end, and send a re-processed detection signal to a detecting module; and the detecting module, which is used to: detect whether a sequence header identifier included in the re-processed detection signal is the same as the sequence header identifier included in the detection signal sent by the detection signal sending module and whether an equipment port number included in the re-processed detection signal is the same as the equipment port number included in the detection signal sent by the detection signal sending module, and then determine a failure type of a physical link according to a detection result, wherein the failure type of the physical link includes: an open circuit in the physical link, a short circuit or a loopback in the physical link, unpaired receiving and sending in the physical link, and a loopback with unpaired receiving and sending in the physical link.
An acoustical panel for forming a ceiling or wall, the panel having a core made primarily of gypsum, the core being essentially coextensive with the panel area such that it has two opposed sides each of an area substantially equal to the area of the panel, the core having a multitude of perforations extending generally between its sides, the perforations being distributed substantially uniformly across the full area of the core and being open at face and rear sides of the core, the perforations being restricted by either a porous acoustical non-woven fabric or a porous paper layer at a rear side of the core, wherein the panel extends across a rectangular area with a nominal thickness of about at least 1,27cm (1/2 in.) wherein the face side of the core is covered by an effectively visually imperforate porous layer when painted, the porous layer at the face side of the core being suitable for adherence by conventional drywall joint compound and a water-based non-blocking paint, the panel, after the porous layer at the face side of the core and joint compound are painted with said non-blocking paint, being adapted to exhibit an NRC of 0.50 or more, and wherein the porous layer at the face side of the core comprises a sheet or web of translucent veil material.
A fault detection method in a network functions virtualization, NFV, system, comprising: receiving, by a detection agent apparatus, location information of a monitoring point on a service path that is sent by a detection control apparatus, wherein the detection agent apparatus is located in the NFV system; obtaining (S301, S302), by the detection agent apparatus, fault locating information from the monitoring point based on the location information of the monitoring point, wherein the fault locating information is information obtained by the monitoring point according to a filter criterion, and the fault locating information comprises the location information of the monitoring point, and the fault locating information is information that is obtained after the monitoring point filters a packet forwarded along the service path according to the filter criterion; and sending, by the detection agent apparatus, the fault locating information to the detection control apparatus. receiving, by a detection agent apparatus, location information of a monitoring point on a service path that is sent by a detection control apparatus, wherein the detection agent apparatus is located in the NFV system; obtaining (S301, S302), by the detection agent apparatus, fault locating information from the monitoring point based on the location information of the monitoring point, wherein the fault locating information is information obtained by the monitoring point according to a filter criterion, and the fault locating information comprises the location information of the monitoring point, and the fault locating information is information that is obtained after the monitoring point filters a packet forwarded along the service path according to the filter criterion; and sending, by the detection agent apparatus, the fault locating information to the detection control apparatus.
A method of protecting data on a network-based wireless device comprising the steps of: (a) receiving at a security manager an identification of the wireless device; (b) determining at the security manager, based on the identification of the wireless device, whether the wireless device contains data that is to be protected; (c) sending (2, 3) from the security manager to the wireless device a command to secure the data that is to be protected; (d) receiving an acknowledgment at the security manager that the data has been secured at the wireless device; and (e) causing network access to be refused to the wireless device, including sending a message from the security manager to place the wireless device on a black list in a network database. wherein steps (c) and (d) are skipped upon determining in step (b) that the wireless device does not contain data that is to be protected. (a) receiving at a security manager an identification of the wireless device; (b) determining at the security manager, based on the identification of the wireless device, whether the wireless device contains data that is to be protected; (c) sending (2, 3) from the security manager to the wireless device a command to secure the data that is to be protected; (d) receiving an acknowledgment at the security manager that the data has been secured at the wireless device; and (e) causing network access to be refused to the wireless device, including sending a message from the security manager to place the wireless device on a black list in a network database.