mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a transceiver ; and a processor operably coupled to the transceiver and configured to: control the transceiver to transmit, via a device-to-device, D2D, communication path to at least one another electronic device, a signal with a first transmit, Tx, power; and control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with a second Tx power lower than the first Tx power, wherein the processor is configured to control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with the second Tx power based on operating in a state where the electronic device is not accessed to a base station, and wherein the processor is further configured to control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with the first Tx power based on operating in a state where the electronic device is accessed to the base station. a transceiver ; and a processor operably coupled to the transceiver and configured to: control the transceiver to transmit, via a device-to-device, D2D, communication path to at least one another electronic device, a signal with a first transmit, Tx, power; and control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with a second Tx power lower than the first Tx power, wherein the processor is configured to control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with the second Tx power based on operating in a state where the electronic device is not accessed to a base station, and wherein the processor is further configured to control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with the first Tx power based on operating in a state where the electronic device is accessed to the base station. control the transceiver to transmit, via a device-to-device, D2D, communication path to at least one another electronic device, a signal with a first transmit, Tx, power; and control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with a second Tx power lower than the first Tx power, wherein the processor is configured to control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with the second Tx power based on operating in a state where the electronic device is not accessed to a base station, and wherein the processor is further configured to control the transceiver to re-transmit, via the D2D communication path to the at least one another electronic device, the signal with the first Tx power based on operating in a state where the electronic device is accessed to the base station.
An electromagnetic relay, comprising: a fixed contact module comprising a fixed terminal and a fixed contact joined to the fixed terminal by riveting; a movable contact module comprising a movable spring and a movable contact that is joined to the movable spring by riveting and disposed to face the fixed contact ; an armature formed of a magnetic material and configured to move the movable contact module to bring the movable contact into and out of contact with the fixed contact ; an electromagnet configured to generate a magnetic field to move the armature ; and characterised by a film formed on a surface of: a contact of at least one of the fixed contact module and the movable contact module ; and at least one of the fixed terminal and the movable spring ; wherein the film has a thermal conductivity higher than a thermal conductivity of the contact of the contact module on which the film is formed. a fixed contact module comprising a fixed terminal and a fixed contact joined to the fixed terminal by riveting; a movable contact module comprising a movable spring and a movable contact that is joined to the movable spring by riveting and disposed to face the fixed contact ; an armature formed of a magnetic material and configured to move the movable contact module to bring the movable contact into and out of contact with the fixed contact ; an electromagnet configured to generate a magnetic field to move the armature ; and characterised by a film formed on a surface of: a contact of at least one of the fixed contact module and the movable contact module ; and at least one of the fixed terminal and the movable spring ; wherein the film has a thermal conductivity higher than a thermal conductivity of the contact of the contact module on which the film is formed.
An apparatus for measuring the composition of a gas mixture containing known components, comprising: a first gas density sensor configured and arranged to measure the density of a first mixture made by combining a gaseous first component and a gaseous second component ; the apparatus being characterized in further comprising a second gas density sensor configured and arranged to measure the density of a second mixture made by combining the first mixture with a gaseous third component ; and a processor programmed to determine based on data from the first gas density sensor the relative compositions of the first component and the second component in the first mixture, and to determine based on the data from the second gas density sensor the relative compositions of the first mixture and the third component in the second mixture, and thus to determine the relative compositions of the first component, the second component, and the third component in the second mixture. a first gas density sensor configured and arranged to measure the density of a first mixture made by combining a gaseous first component and a gaseous second component ; the apparatus being characterized in further comprising a second gas density sensor configured and arranged to measure the density of a second mixture made by combining the first mixture with a gaseous third component ; and a processor programmed to determine based on data from the first gas density sensor the relative compositions of the first component and the second component in the first mixture, and to determine based on the data from the second gas density sensor the relative compositions of the first mixture and the third component in the second mixture, and thus to determine the relative compositions of the first component, the second component, and the third component in the second mixture.
An antenna system , comprising: a center reflector panel and two side reflector panels , wherein a respective reflector panel includes a curved surface that forms a portion of a parabolic reflector , and wherein the center reflector panel of the three panels comprises a through-hole, and is coupled to the side reflector panels at each of two opposing side surfaces of the center reflector panel; a multi-panel fastener configured to be fastened to a convex side of the reflector panels that form the parabolic reflector, wherein the multi-panel fastener is configured to prevent the reflector panels from becoming unfastened; and a feed assembly configured to be mounted on a concave side of the parabolic reflector; wherein a proximal portion of the feed assembly is configured to pass through the through-hole on the center reflector panel and engage the multi-panel fastener to secure the multi-panel fastener to the convex side of the center reflector panel, wherein engaging the proximal portion of the feed assembly to the multi-panel fastener secures the two side panels to prevent the two side panels from detaching from the center panel. a center reflector panel and two side reflector panels , wherein a respective reflector panel includes a curved surface that forms a portion of a parabolic reflector , and wherein the center reflector panel of the three panels comprises a through-hole, and is coupled to the side reflector panels at each of two opposing side surfaces of the center reflector panel; a multi-panel fastener configured to be fastened to a convex side of the reflector panels that form the parabolic reflector, wherein the multi-panel fastener is configured to prevent the reflector panels from becoming unfastened; and a feed assembly configured to be mounted on a concave side of the parabolic reflector; wherein a proximal portion of the feed assembly is configured to pass through the through-hole on the center reflector panel and engage the multi-panel fastener to secure the multi-panel fastener to the convex side of the center reflector panel, wherein engaging the proximal portion of the feed assembly to the multi-panel fastener secures the two side panels to prevent the two side panels from detaching from the center panel.
A padding machine for moving along a side of a ditch, scooping up excavated material from the side of the ditch, and sifting the excavated material into padding material for filling in the ditch, the machine comprising: a frame comprising side frame members (124; 126) and frame rails spaced apart from the side frame members (124; 126); and a screening belt and pulleys supported by the frame, the screening belt being driven around the pulleys , the screening belt comprising a screening belt for collecting and conveying the excavated material upwardly, wherein the screening belt comprises apertures for sifting the excavated material into padding material by permitting the padding material to fall through the apertures of the screen, wherein the screening belt runs over the frame rails which support the screen; and a discharge conveyor mounted to the frame beneath an upper run of the screening belt wherein the discharge conveyor is adapted for receiving the padding material passing through the screening belt and for discharging the padding material into the ditch, characterized in that the screening belt comprises ribs attached to the screen, wherein each rib has a notch adapted to partially and slidably receive the respective frame rail . a frame comprising side frame members (124; 126) and frame rails spaced apart from the side frame members (124; 126); and a screening belt and pulleys supported by the frame, the screening belt being driven around the pulleys , the screening belt comprising a screening belt for collecting and conveying the excavated material upwardly, wherein the screening belt comprises apertures for sifting the excavated material into padding material by permitting the padding material to fall through the apertures of the screen, wherein the screening belt runs over the frame rails which support the screen; and a discharge conveyor mounted to the frame beneath an upper run of the screening belt wherein the discharge conveyor is adapted for receiving the padding material passing through the screening belt and for discharging the padding material into the ditch, characterized in that the screening belt comprises ribs attached to the screen, wherein each rib has a notch adapted to partially and slidably receive the respective frame rail .
Circuit arrangement comprising a fuse which electrically connects two connection regions , having: - a heat sink and - a layer arrangement which is arranged on a surface of the heat sink and has an electrically insulating insulation layer , which is arranged on the heat sink , and an electrically conductive conductor layer which is arranged on a side of the insulation layer that faces away from the heat sink , wherein an electrical connecting path between the connection regions is provided by the layer arrangement , characterized in that , for providing the fuse , the surface of the heat sink has two material cutouts , and a bridge element is formed by a portion of the heat sink that is arranged between the material cutouts , and the layer arrangement is guided over the bridge element . - a heat sink and - a layer arrangement which is arranged on a surface of the heat sink and has an electrically insulating insulation layer , which is arranged on the heat sink , and an electrically conductive conductor layer which is arranged on a side of the insulation layer that faces away from the heat sink , wherein an electrical connecting path between the connection regions is provided by the layer arrangement ,
A system for reducing atmospheric emissions of hydrocarbon vapors in a delayed coke drum quench overflow system, which comprises: an overflow drum for receiving overflow from a coke drum, the overflow drum connected to a blowdown header line for reducing hydrocarbon vapors and producing a vapor overflow remainder and a liquid overflow remainder; an overflow tank connected to the overflow drum by a liquid overflow remainder line for separating at least one of skim oil, water, coke fines, and tank vapor from the liquid overflow remainder; an overflow drum vapor line in fluid communication with the overflow drum for transmitting the vapor overflow remainder to a steam/hydrocarbon vapor line ; and a tank vapor line in fluid communication with the overflow tank for transmitting the tank vapor to an overflow ejector , wherein the overflow ejector includes an inlet in fluid communication with the tank vapor line and an outlet in fluid communication with the steam/hydrocarbon vapor line for reducing the pressure in the overflow tank to 0 Pag (0 psig). an overflow drum for receiving overflow from a coke drum, the overflow drum connected to a blowdown header line for reducing hydrocarbon vapors and producing a vapor overflow remainder and a liquid overflow remainder; an overflow tank connected to the overflow drum by a liquid overflow remainder line for separating at least one of skim oil, water, coke fines, and tank vapor from the liquid overflow remainder; an overflow drum vapor line in fluid communication with the overflow drum for transmitting the vapor overflow remainder to a steam/hydrocarbon vapor line ; and a tank vapor line in fluid communication with the overflow tank for transmitting the tank vapor to an overflow ejector , wherein the overflow ejector includes an inlet in fluid communication with the tank vapor line and an outlet in fluid communication with the steam/hydrocarbon vapor line for reducing the pressure in the overflow tank to 0 Pag (0 psig).
A pharmaceutical composition, comprising: an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein the first uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 65:35 to 90:10, an intrinsic viscosity of 0.4-0.9 dl/g; the second uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 50:50 to 75:25, an intrinsic viscosity of 0.1-0.35 dl/g; wherein a weight ratio of the first uncapped poly(lactide-coglycolide) to the second uncapped poly(lactide-co-glycolide) is (50-95):(5-50); wherein a weight content of the active ingredient in the pharmaceutical composition is within a range from 10% to 60%, and a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%; wherein the pharmaceutical composition is present in the form of microspheres. an active component selected from risperidone or a salt thereof, 9-hydroxy risperidone or a salt thereof; and a polymer blend consisting of a first uncapped poly(lactide-co-glycolide) and a second uncapped poly(lactide-co-glycolide), wherein the first uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 65:35 to 90:10, an intrinsic viscosity of 0.4-0.9 dl/g; the second uncapped poly(lactide-co-glycolide) has a molar ratio of lactide to glycolide of 50:50 to 75:25, an intrinsic viscosity of 0.1-0.35 dl/g; wherein a weight ratio of the first uncapped poly(lactide-coglycolide) to the second uncapped poly(lactide-co-glycolide) is (50-95):(5-50); wherein a weight content of the active ingredient in the pharmaceutical composition is within a range from 10% to 60%, and a weight content of the polymer blend in the pharmaceutical composition is within a range from 40% to 90%; wherein the pharmaceutical composition is present in the form of microspheres.
A network configuration device for determining a wireless communication network realization in a plant where a process control system is provided, the device comprising: a network forming unit operative to: - receive a user selection of wireless endpoint devices and locations of these wireless endpoint devices in the plant, where each wireless endpoint device is provided as at least one of a pair of endpoint devices that are to communicate with each other in relation to an automation function of the process control system , where one endpoint device in a pair performs processing and the other provides data for or receives results of said processing and each wireless device is enclosed in an area, the contour of which represents a minimum allowed signal strength, - obtain data communication requirements of the wireless endpoint devices , which data communication requirements are related to the automation functions and comprise at least one signal sent between a pair of endpoint devices and the time within which it has to reach its destination in order to be able to be used in the corresponding automation function, - determine a number of wireless relay devices related to the locations of wireless endpoint devices in the plant achieving a defined degree of radio coverage sufficient to satisfy the data communication requirements, and characterized in that it is further operative to - make, for every endpoint device pair, the contour of every wireless device in a path between two endpoint devices intersect the contour of a neighboring wireless device for obtaining the defined degree of radio coverage. - receive a user selection of wireless endpoint devices and locations of these wireless endpoint devices in the plant, where each wireless endpoint device is provided as at least one of a pair of endpoint devices that are to communicate with each other in relation to an automation function of the process control system , where one endpoint device in a pair performs processing and the other provides data for or receives results of said processing and each wireless device is enclosed in an area, the contour of which represents a minimum allowed signal strength, - obtain data communication requirements of the wireless endpoint devices , which data communication requirements are related to the automation functions and comprise at least one signal sent between a pair of endpoint devices and the time within which it has to reach its destination in order to be able to be used in the corresponding automation function, - determine a number of wireless relay devices related to the locations of wireless endpoint devices in the plant achieving a defined degree of radio coverage sufficient to satisfy the data communication requirements, and characterized in that it is further operative to - make, for every endpoint device pair, the contour of every wireless device in a path between two endpoint devices intersect the contour of a neighboring wireless device for obtaining the defined degree of radio coverage.
A construction machine with a tank system, the tank system comprising: - a fuel tank having a tank outer wall which closes off a tank volume to the outside, - a withdrawal tank volume separated by a partition wall from a main tank volume of the tank volume and in fuel-exchanging connection with the main tank volume , - a fuel withdrawal arrangement having a main fuel pump and a withdrawal line opening into the withdrawal tank volume for conveying fuel by means of the main fuel pump via the withdrawal line from the withdrawal tank volume to a fuel-consuming system region , - a fuel feed arrangement having an auxiliary fuel pump for conveying fuel from the main tank volume into the withdrawal tank volume , wherein the withdrawal tank volume comprises a lower withdrawal tank volume region in relation to a vertical direction (V) and an upper withdrawal tank volume region adjoining the lower withdrawal tank volume region in the vertical direction (V), wherein the lower withdrawal tank volume region is separated from the main tank volume in such a way that there is no direct fuel-exchanging connection between the main tank volume and the lower withdrawal tank volume , characterized in that in case of a positioning of the tank system which is not inclined in relation to a horizontal plane, the lower withdrawal tank volume area is positioned in the vertical direction (V) essentially completely under a bottom wall of the tank outer wall in the region of the main tank volume . - a fuel tank having a tank outer wall which closes off a tank volume to the outside, - a withdrawal tank volume separated by a partition wall from a main tank volume of the tank volume and in fuel-exchanging connection with the main tank volume , - a fuel withdrawal arrangement having a main fuel pump and a withdrawal line opening into the withdrawal tank volume for conveying fuel by means of the main fuel pump via the withdrawal line from the withdrawal tank volume to a fuel-consuming system region , - a fuel feed arrangement having an auxiliary fuel pump for conveying fuel from the main tank volume into the withdrawal tank volume , wherein the withdrawal tank volume comprises a lower withdrawal tank volume region in relation to a vertical direction (V) and an upper withdrawal tank volume region adjoining the lower withdrawal tank volume region in the vertical direction (V), wherein the lower withdrawal tank volume region is separated from the main tank volume in such a way that there is no direct fuel-exchanging connection between the main tank volume and the lower withdrawal tank volume , characterized in that in case of a positioning of the tank system which is not inclined in relation to a horizontal plane, the lower withdrawal tank volume area is positioned in the vertical direction (V) essentially completely under a bottom wall of the tank outer wall in the region of the main tank volume .
A composition comprising an antibody or antibody fragment that has antibody framework sequences of antibody variable domains VL and VH, wherein the VL domain has the framework sequence of Seq. Id. No. 1 and the VH domain has the framework sequence of Seq. Id. No. 11, wherein the antibody or antibody fragment is stable under reducing intracellular conditions.