mhurhangee/ep-ind-claims huggingface dataset:
An evolved node B, eNode B, operable to release a licensed shared access, LSA, spectrum allocation in a communications network, the eNode B having circuitry configured to: receive, from a spectrum release module located in an evolved packet core, EPC, of the communications network, a spectrum release message requesting the eNode B release one or more selected segments of an LSA spectrum; evaluate LSA spectrum release parameters for releasing the one or more selected segments of the LSA spectrum; determine an LSA spectrum release schedule based on the LSA spectrum release parameters; and deactivate selected secondary cells, SCells, in the communications network based on the LSA spectrum release schedule to release the one or more selected segments of the LSA spectrum; wherein the LSA spectrum release parameters include: T R, where T R is a time period for the eNode B to fully release the selected segments of the LSA spectrum; Ts, where Ts is a starting time of the LSA spectrum release schedule; T C, where T C is a periodic time interval of when a sharing ratio between the LTE network and the incumbent is updated starting from Ts until T R; and T i, where T i is an amount of time that the eNB decreases a time sharing with the incumbent at every T C time interval. receive, from a spectrum release module located in an evolved packet core, EPC, of the communications network, a spectrum release message requesting the eNode B release one or more selected segments of an LSA spectrum; evaluate LSA spectrum release parameters for releasing the one or more selected segments of the LSA spectrum; determine an LSA spectrum release schedule based on the LSA spectrum release parameters; and deactivate selected secondary cells, SCells, in the communications network based on the LSA spectrum release schedule to release the one or more selected segments of the LSA spectrum; wherein the LSA spectrum release parameters include: T R, where T R is a time period for the eNode B to fully release the selected segments of the LSA spectrum; Ts, where Ts is a starting time of the LSA spectrum release schedule; T C, where T C is a periodic time interval of when a sharing ratio between the LTE network and the incumbent is updated starting from Ts until T R; and T i, where T i is an amount of time that the eNB decreases a time sharing with the incumbent at every T C time interval.
A pharmaceutical composition for use in preventing or treating chronic inflammatory airway diseases comprising alpha-enolase protein as an active ingredient.
An ink jet printer for printing on an at least partially cylindrical objects comprising: a plurality of printheads in communication with a fluid supply and positioned with respect to an axis along which an at least partially cylindrical object is to be conveyed, each of said plurality of printheads being controlled to selectively deposit fluid upon a surface of said object in accordance with a predetermined image; a curing device located along said axis and configured to emit energy suitable to cure fluid deposited upon the surface of said object; and a carriage assembly configured to hold said object and to axially convey said object along said axis, axially position said object relative to said plurality of printheads, and to rotate said object relative to said plurality of printheads, and to axially position said object relative to said curing device; characterized in that said plurality of printheads comprises a print tunnel arranged in an arch above said axis and the printheads are arranged in an arc with an axial offset between printheads. a plurality of printheads in communication with a fluid supply and positioned with respect to an axis along which an at least partially cylindrical object is to be conveyed, each of said plurality of printheads being controlled to selectively deposit fluid upon a surface of said object in accordance with a predetermined image; a curing device located along said axis and configured to emit energy suitable to cure fluid deposited upon the surface of said object; and a carriage assembly configured to hold said object and to axially convey said object along said axis, axially position said object relative to said plurality of printheads, and to rotate said object relative to said plurality of printheads, and to axially position said object relative to said curing device; characterized in that said plurality of printheads comprises a print tunnel arranged in an arch above said axis and the printheads are arranged in an arc with an axial offset between printheads.
Device for applying a coating composition to a planar substrate, comprising a) a planar substrate; b) a coating head comprising a recess for receiving the coating composition said recess being open upwardly and towards the substrate; wherein the substrate and the coating head are displaceable relative to one another, and wherein the coating head is arranged such that the substrate is wetted by the coating composition in the recess, and the coating composition is applied to the substrate by the relative movement, characterized in that the part of the coating head having the recess is embodied in an exchangeable manner and a surface element forms the bottom of the recess. a) a planar substrate; b) a coating head comprising a recess for receiving the coating composition said recess being open upwardly and towards the substrate;
Extruded pellets comprising at least 70% w/w cholestyramine and i. at least 7% w/w of a vinylpyrrolidone-based polymer; or ii. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer and at least 2% w/w of an acrylate copolymer; or iii. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer and at least 3% w/w of an acrylate copolymer; or iv. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer, at least 1% w/w of an acrylate copolymer and at least 10% w/w microcrystalline cellulose; or v. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer, at least 2% w/w of an acrylate copolymer and at least 20% w/w microcrystalline cellulose. i. at least 7% w/w of a vinylpyrrolidone-based polymer; or ii. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer and at least 2% w/w of an acrylate copolymer; or iii. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer and at least 3% w/w of an acrylate copolymer; or iv. a combination of at least 6% w/w of a vinylpyrrolidone-based polymer, at least 1% w/w of an acrylate copolymer and at least 10% w/w microcrystalline cellulose; or v. a combination of at least 5% w/w of a vinylpyrrolidone-based polymer, at least 2% w/w of an acrylate copolymer and at least 20% w/w microcrystalline cellulose.
A cathodic arc coating apparatus comprising: a vessel; an anode spaced apart from a cathode disposed in the vessel, the cathode having at least one evaporative surface; a first power supply configured to create an electric potential in the cathode; means for retaining at least one workpiece in the vessel so that the at least one workpiece is exposed to the at least one evaporative surface; a trigger for initiating an electrical arc between the anode and the cathode for vaporizing a portion of the evaporative surface to form a metallic plasma; a second power supply configured to bias the at least one workpiece with a negative potential equal to or less than a potential of the anode, thereby directing the metallic plasma toward the at least one workpiece; and a stinger assembly, the stinger assembly including at least a first magnetic field generator for steering the electric arc over the evaporative surface of the cathode, characterised in that the at least first magnetic field generator is disposed in a first electrically conductive inner cup portion joined to a second electrically conductive outer cup portion in selective contact with the cathode, defining a first stinger cup having a thermally insulating layer between the first electrically conductive inner cup portion and the second electrically conductive outer cup portion such that the thermally insulating layer is disposed between the first magnetic field generator and the cathode when the first stinger cup is in contact with the cathode. a vessel; an anode spaced apart from a cathode disposed in the vessel, the cathode having at least one evaporative surface; a first power supply configured to create an electric potential in the cathode; means for retaining at least one workpiece in the vessel so that the at least one workpiece is exposed to the at least one evaporative surface; a trigger for initiating an electrical arc between the anode and the cathode for vaporizing a portion of the evaporative surface to form a metallic plasma; a second power supply configured to bias the at least one workpiece with a negative potential equal to or less than a potential of the anode, thereby directing the metallic plasma toward the at least one workpiece; and a stinger assembly, the stinger assembly including at least a first magnetic field generator for steering the electric arc over the evaporative surface of the cathode, characterised in that the at least first magnetic field generator is disposed in a first electrically conductive inner cup portion joined to a second electrically conductive outer cup portion in selective contact with the cathode, defining a first stinger cup having a thermally insulating layer between the first electrically conductive inner cup portion and the second electrically conductive outer cup portion such that the thermally insulating layer is disposed between the first magnetic field generator and the cathode when the first stinger cup is in contact with the cathode.
A process for dewaxing a waxy component-containing hydrocarbon feedstock, the process comprising contacting the feedstock under dewaxing conditions with a catalyst system comprising ZSM-48 and a molecular sieve of the MTT framework type, wherein the ZSM-48 has a silica to alumina molar ratio less than 250.
Sensor device for a motor vehicle, with a multilayer board on which several metallization layers are formed, wherein a capacitive sensor electrode for detection by means of capacitive proximity detection is formed on one of the metallization planes, wherein a control means is coupled to the sensor electrode to apply an electrical voltage to the sensor electrode with respect to a reference potential and an evaluation means detects a change in capacitance of the sensor electrode to detect approaches of a user to the sensor electrode, wherein at least one flat electrode region (11, 12, 13, 14, 15, 16, 17, 18, 19) is formed on each of a plurality of the metallization planes, each of the electrode regions being coupled to the control means so that to each of the electrode regions an assigned, individual electrical voltage relative to a reference potential is applied, wherein the evaluation means is coupled to at least two of the electrode regions on different metallization levels, wherein the evaluation means and the control means are designed in such a way that at least two of the electrode regions on different metallization levels are alternately driven and evaluated in time as sensor electrode and at least two of the electrode regions on different metallization levels are alternately driven and evaluated in time as ground, wherein two separate electrode regions (11, 12, 13; 14, 15; 17, 18, 19) are formed in at least one metallization plane, which can be controlled or evaluated separately, wherein the control circuit is designed in such a way that at least one of the coupled electrode regions can be switched floating.
A semiconductor device comprising: a GaN layer; an AlGaN layer formed on the GaN layer; a p-GaN layer formed on the AlGaN layer; a gate electrode formed on the p-GaN layer; a source electrode and a drain electrode formed on a partial region of the AlGaN layer; and a passivation layer formed on a partial region of the AlGaN layer, the passivation layer formed between the source electrode and the gate electrode or between the gate electrode and the drain electrode characterised in that the passivation layer is photo electrochemically oxidized p-GaN. a GaN layer; an AlGaN layer formed on the GaN layer; a p-GaN layer formed on the AlGaN layer; a gate electrode formed on the p-GaN layer; a source electrode and a drain electrode formed on a partial region of the AlGaN layer; and a passivation layer formed on a partial region of the AlGaN layer, the passivation layer formed between the source electrode and the gate electrode or between the gate electrode and the drain electrode characterised in that the passivation layer is photo electrochemically oxidized p-GaN.
A motor-adjustable steering column for a motor vehicle, comprising an outer casing which is held by a support unit that is attachable to a vehicle body and in which an actuator unit is received so as to be adjustable in the longitudinal direction, a steering spindle being coaxially mounted in a casing tube in said actuator unit so as to be rotatable about a longitudinal axis, wherein an adjustment drive and an energy absorbing installation are disposed between the outer casing and the actuator unit, wherein the adjustment drive has a spindle mechanism with a threaded spindle which so as to be drivable in a rotating manner by an electric servomotor engages in a spindle nut, and the energy absorbing installation comprises at least one energy absorbing element which is at least indirectly disposed between the spindle nut and the actuator unit, characterized in that the spindle nut or the threaded spindle has at least one forming element (57c, 57e, 57g) which operatively engages with the energy absorbing element and by way of which the energy absorbing element is plastically deformable.
A device for locking two floor panels (1, 2) which are connected to each other and which are constructed identically and which have a core, an upper side (10, 20) and a lower side (11, 21), a first side edge and an opposing second side edge, and at the upper side (10, 20) the first side edge of the first floor panel abuts the second side edge of the second floor panel, in the second side edge there is formed a horizontal groove which extends into the core and which has an upper wall (4.1), an inner wall (4.2) and a lower wall (4.3), wherein the lower wall (4.3) is formed by a lower lip (1.1) which protrudes at the first side edge and which has at the outer end thereof a projection (1.2) which faces in the direction of the upper side and which has a first locking edge (1.5), and in the region of the connection location of the two floor panels (1, 2) at least one locking element is inserted, and wherein at the second side edge there is provided a tongue (2.1) which protrudes outward and which has at the outer end thereof a graduation (2.2) which forms a tongue tip (2.3) and at the end thereof facing the core a second locking edge (2.5) which extends in a vertical direction, wherein the locking edge (2.5) is the outer wall of a vertical groove which is open in a direction toward the lower side and in which the projection (1.2) engages and the locking is carried out in a vertical direction by means of the tongue tip (2.3) which engages in the horizontal groove and in a horizontal direction by means of the locking element which is supported, on the one hand, on the first locking edge (1.5) of the projection (1.2) and, on the other hand, on the second locking edge (2.5) of the tongue (2.1), characterized in that the locking element is compressible in the vertical direction and incompressible in the horizontal direction.
Pymetrozine for use in: (i) the control of, or protection against, bee mites in a bee colony; (ii) the reduction of infestations of bee mites on bees; or (iii) the treatment of varroatosis. (i) the control of, or protection against, bee mites in a bee colony; (ii) the reduction of infestations of bee mites on bees; or (iii) the treatment of varroatosis.
A communication method for a network node (100, 600) for internet protocol, IP, routing compatibility, the method comprising: receiving a packet comprising a name of a content that comprises first information indicating a location of the content, and second information identifying the content; determining whether the packet corresponds to a content-centric network packet, or determining whether the packet corresponds to a content-centric network, CCN, packet based on a protocol field of an IP header of the packet; determining whether a CCN processing function is supported, and upon determining that the CCN processing function is supported: extracting the second information from the packet; determining whether the content corresponding to the second information is present in a content store, CS (110, 610), in response to the packet being determined to correspond to the CCN packet; transmitting the content based on a result of the determining of whether the content corresponding to the second information is present in the CS (110, 610); and forwarding the packet to another network node (100, 600) based on whether the content corresponding to the second information is stored in the network node (100, 600). receiving a packet comprising a name of a content that comprises first information indicating a location of the content, and second information identifying the content; determining whether the packet corresponds to a content-centric network packet, or determining whether the packet corresponds to a content-centric network, CCN, packet based on a protocol field of an IP header of the packet; determining whether a CCN processing function is supported, and upon determining that the CCN processing function is supported: extracting the second information from the packet; determining whether the content corresponding to the second information is present in a content store, CS (110, 610), in response to the packet being determined to correspond to the CCN packet; transmitting the content based on a result of the determining of whether the content corresponding to the second information is present in the CS (110, 610); and forwarding the packet to another network node (100, 600) based on whether the content corresponding to the second information is stored in the network node (100, 600). extracting the second information from the packet; determining whether the content corresponding to the second information is present in a content store, CS (110, 610), in response to the packet being determined to correspond to the CCN packet; transmitting the content based on a result of the determining of whether the content corresponding to the second information is present in the CS (110, 610); and forwarding the packet to another network node (100, 600) based on whether the content corresponding to the second information is stored in the network node (100, 600).
A thin film transistor sensor comprising a first substrate and a second substrate opposite to each other, wherein the first substrate comprises a first flexible base substrate and a first gate electrode on the first flexible base substrate; the second substrate comprises a second flexible base substrate and a second gate electrode on the second flexible base substrate; the first flexible base substrate further comprises an active layer, a source electrode and a drain electrode; and the second gate electrode and the first gate electrode at least partially overlap and are separated from each other, the second gate electrode and the first gate electrode are configured to be electrically connected after the thin film transistor sensor is applied with a pressure, to allow the thin film transistor sensor to be turned on; and characterized in that the thin film transistor sensor further comprises: a pressure conductive material disposed between the first substrate and the second substrate to separate the first gate electrode from the second gate electrode, the pressure conductive material conducting electricity when it is subjected to a pressure equal to or larger than a predetermined pressure. the first substrate comprises a first flexible base substrate and a first gate electrode on the first flexible base substrate; the second substrate comprises a second flexible base substrate and a second gate electrode on the second flexible base substrate; the first flexible base substrate further comprises an active layer, a source electrode and a drain electrode; and the second gate electrode and the first gate electrode at least partially overlap and are separated from each other, the second gate electrode and the first gate electrode are configured to be electrically connected after the thin film transistor sensor is applied with a pressure, to allow the thin film transistor sensor to be turned on; and characterized in that the thin film transistor sensor further comprises: a pressure conductive material disposed between the first substrate and the second substrate to separate the first gate electrode from the second gate electrode, the pressure conductive material conducting electricity when it is subjected to a pressure equal to or larger than a predetermined pressure.
An electronic system comprising: a fan speed control circuit configured to generate a heartbeat signal indicating normal operation of the fan speed control circuit; and a fan speed control signal; and a fan module comprising a fan controller and a fan, wherein the fan speed control circuit is communicatively connected to the fan controller of the fan module via a wired connection and is configured to communicate the fan speed control signal and the heartbeat signal to the fan controller via the wired connection, the fan controller being configured to operate the fan at the instructed speed in the fan speed control signal, and the fan controller being further configured to detect a discrepancy in the heartbeat signal and control the fan according to a safe fan speed, in response to a detected discrepancy, characterized in that the heartbeat signal is embedded within a fan speed control signal, and the heartbeat signal is transmitted over a same general purpose output pin as the fan speed control signal, wherein the heartbeat signal is periodic pulse-width modulation within the fan speed control signal, and the discrepancy is a lack of the heartbeat signal during at least one period, during two sequential periods, or during two non-sequential periods. a fan speed control circuit configured to generate a heartbeat signal indicating normal operation of the fan speed control circuit; and a fan speed control signal; and a fan module comprising a fan controller and a fan, wherein the fan speed control circuit is communicatively connected to the fan controller of the fan module via a wired connection and is configured to communicate the fan speed control signal and the heartbeat signal to the fan controller via the wired connection, the fan controller being configured to operate the fan at the instructed speed in the fan speed control signal, and the fan controller being further configured to detect a discrepancy in the heartbeat signal and control the fan according to a safe fan speed, in response to a detected discrepancy, characterized in that the heartbeat signal is embedded within a fan speed control signal, and the heartbeat signal is transmitted over a same general purpose output pin as the fan speed control signal, wherein the heartbeat signal is periodic pulse-width modulation within the fan speed control signal, and the discrepancy is a lack of the heartbeat signal during at least one period, during two sequential periods, or during two non-sequential periods.