mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication system, comprising: a first wireless base station which manages a macro cell; a second wireless base station which manages a small cell included in the macro cell; and a core network node; wherein when a mobile terminal, which stays in the macro cell, transmits a service establishment request to the core network node, the core network node transmits the request to the first wireless base station; when the first wireless base station receives the service establishment request, the first wireless base station determines whether the requested service is of a type that is establishable in the small cell; when the requested service is of a type that is establishable in the small cell, the first wireless base station transmits to the core network node a service establishment reply notifying that establishment of the service has failed in order to execute a handover to the small cell; when the requested service is of a type that is not establishable in the small cell, the first wireless base station establishes a bearer between itself and the mobile terminal, whereby the bearer is associated with the requested service; when the core network node receives the service establishment reply notifying that establishment of the service has failed, the core network node transmits the service establishment request to the second wireless base station; when the second wireless base station receives the service establishment request from the core network node, the second wireless base station establishes a bearer between itself and the mobile terminal, whereby the bearer is associated with the requested service. a first wireless base station which manages a macro cell; a second wireless base station which manages a small cell included in the macro cell; and a core network node; wherein when a mobile terminal, which stays in the macro cell, transmits a service establishment request to the core network node, the core network node transmits the request to the first wireless base station; when the first wireless base station receives the service establishment request, the first wireless base station determines whether the requested service is of a type that is establishable in the small cell; when the requested service is of a type that is establishable in the small cell, the first wireless base station transmits to the core network node a service establishment reply notifying that establishment of the service has failed in order to execute a handover to the small cell; when the requested service is of a type that is not establishable in the small cell, the first wireless base station establishes a bearer between itself and the mobile terminal, whereby the bearer is associated with the requested service; when the core network node receives the service establishment reply notifying that establishment of the service has failed, the core network node transmits the service establishment request to the second wireless base station;
A radio frequency communication device (1, 1', 10) having data transmission means and data receiving means, wherein the data transmission means comprise load modulating means being adapted to receive a radio frequency carrier signal (CS1, CS2) emitted by another RF communication device (1, 1', 10) and to modulate the RF carrier signal (CS1, CS2) by means of load modulation in accordance with data to be sent, and wherein the data receiving means comprise a RF frequency carrier signal generator being adapted to emit a radio frequency carrier signal (CS1, CS2) and load demodulating means being connected to an emission path of the radio frequency carrier signal and demodulating the radio frequency carrier signal (CS1, CS2) when it has been load modulated by another RF communication device (1, 1', 10), charaterized in that the data transmission means and the data receiving means are alternatingly coupled to a common antenna, and in that the RF communication device (1, 1', 10) comprises switching means for alternatingly coupling the data transmission means and the data receiving means to the common antenna, so that data transfer between the RF communication device (1, 1', 10) and the other RF communication device (1, 1', 10) is always carried out by load modulation.
Multi-level converter comprising one or more arms, configured to each be connected between a voltage source and a current source, in which the or each arm comprises two stages (Et1, Et2) connected in cascade with a first stage intended to be connected to the voltage source, a second stage intended to be connected to the current source, in which the first stage comprises n elementary stages (E11,..., E1n) of rank one to n (n greater than one) connected in cascade, the elementary stage of rank one being connected to the second stage and the elementary stage (E1n) of rank n being intended to be connected to the voltage source, characterized in that each elementary stage (E11, E1n) comprises a pair of identical cells of NPC (Neutral Point Clamped) type (Ce11, Ce12; Cen1, Cen2) connected in series, the connection in series being direct in the elementary stage of rank 1, the connection in series being made via n-1 capacitive cells (Can, Can(n-1)) for each elementary stage of rank n (n greater than one), the second stage comprising a cell of floating capacitor type.
A propelling module, comprising: a module housing, a rotating device, a transmission shaft and a propeller; wherein the module housing is provided with a sealed chamber, the propeller is arranged outside the sealed chamber, the rotating device is arranged inside the sealed chamber, one end of the transmission shaft is connected to the rotating device, the other end of the transmission shaft penetrates through a side wall of the sealed chamber and extends to the exterior of the sealed chamber, and the other end of the transmission shaft is connected to the propeller; the module housing is provided with a power connection member, the rotating device is electrically connected to the power connection member, and the rotating device is configured, in use, to be electrically connected to an external battery module via the power connection member; two ends of the module housing are respectively provided with a storage end and a tail end, the sealed chamber is arranged at the storage end, the module housing is further provided with a water passage, wherein the water passage penetrates through from a bottom surface of the tail end to a side surface of the tail end, and the propeller is arranged in the water passage; wherein the rotating device comprises a control assembly and a motor; and wherein the control assembly comprises a brushless motor controller, an input of the brushless motor controller is electrically connected to the power connection member, an output of the brushless motor controller is electrically connected to the motor, and the transmission shaft is connected to a rotor of the motor. the module housing is provided with a power connection member, the rotating device is electrically connected to the power connection member, and the rotating device is configured, in use, to be electrically connected to an external battery module via the power connection member; two ends of the module housing are respectively provided with a storage end and a tail end, the sealed chamber is arranged at the storage end, the module housing is further provided with a water passage, wherein the water passage penetrates through from a bottom surface of the tail end to a side surface of the tail end, and the propeller is arranged in the water passage; wherein the rotating device comprises a control assembly and a motor; and wherein the control assembly comprises a brushless motor controller, an input of the brushless motor controller is electrically connected to the power connection member, an output of the brushless motor controller is electrically connected to the motor, and the transmission shaft is connected to a rotor of the motor.
Method for treating an area by means of a robotic vehicle, wherein the robotic vehicle has a controller which stores data relating to the outline of the area to be treated, wherein there are localization means which determine the position of the robotic vehicle, in particular in relation to the area to be treated, and wherein the method comprises the following steps of: - dividing the area to be treated into individual segments (61a to 64a; 61b to 64b) by means of an algorithm of the controller, wherein a plurality of segmentations with a different number of individual segments (61a to 64a; 61b to 64b) are first of all generated, - classifying each individual segment (61a to 64a; 61b to 64b) in one of two property classes (A, B), wherein the property classes (A, B) differ in terms of the simplicity or effectiveness of the treatment, - adding up the property classes (A, B) of the individual segments (61a to 64a; 61b to 64b) for each segmentation by means of the controller, - pursuing a treatment strategy having a larger number of individual segments (61a to 64a; 61b to 64b) with a property class (A, B) which can be treated in a simpler or more effective manner, - successively approaching and treating the individual segments (61a to 64a; 61b to 64b), wherein each individual segment (61a to 64a; 61b to 64b) is treated with a treatment strategy corresponding to its property class (A, B). - dividing the area to be treated into individual segments (61a to 64a; 61b to 64b) by means of an algorithm of the controller, wherein a plurality of segmentations with a different number of individual segments (61a to 64a; 61b to 64b) are first of all generated, - classifying each individual segment (61a to 64a; 61b to 64b) in one of two property classes (A, B), wherein the property classes (A, B) differ in terms of the simplicity or effectiveness of the treatment, - adding up the property classes (A, B) of the individual segments (61a to 64a; 61b to 64b) for each segmentation by means of the controller, - pursuing a treatment strategy having a larger number of individual segments (61a to 64a; 61b to 64b) with a property class (A, B) which can be treated in a simpler or more effective manner, - successively approaching and treating the individual segments (61a to 64a; 61b to 64b), wherein each individual segment (61a to 64a; 61b to 64b) is treated with a treatment strategy corresponding to its property class (A, B).
An additive manufacturing method, comprising: providing material to a horizontally-extending nozzle from an extruder of an additive manufacturing apparatus; heating the material to form a flowable material; depositing a first layer of the flowable material from a nozzle of the additive manufacturing apparatus to form part of a hull portion of a plug for a mold of a marine article; and depositing a second layer of the flowable material from the nozzle of the additive manufacturing apparatus to form part of a deck portion of the plug for the marine article, wherein the deck portion has a shape corresponding to an inside of a boat; and machining the hull portion and the deck portion with the additive manufacturing apparatus. providing material to a horizontally-extending nozzle from an extruder of an additive manufacturing apparatus; heating the material to form a flowable material; depositing a first layer of the flowable material from a nozzle of the additive manufacturing apparatus to form part of a hull portion of a plug for a mold of a marine article; and depositing a second layer of the flowable material from the nozzle of the additive manufacturing apparatus to form part of a deck portion of the plug for the marine article, wherein the deck portion has a shape corresponding to an inside of a boat; and machining the hull portion and the deck portion with the additive manufacturing apparatus.
System for producing a combed fibre sliver, comprising a winding machine having at least one combing machine, wherein the winding machine is configured to produce for each combing machine a group of a plurality of lap rolls from lap sliver, having a transport system which is configured to transport the lap rolls to at least one combing machine and to feed them to the combing heads, wherein the at least one combing machine is configured to produce a combed fibre sliver from each lap roll, wherein the fibre sliver or slivers is/are subsequently drawn to form a single fibre sliver, wherein the at least one combing machine has a measuring device which is configured to measure the deviation of the sliver mass of the fibre sliver, wherein a controller of the combing machine is configured to compare the sliver mass of the fibre sliver with a desired sliver weight and to allocate it to the discharge length of the lap roll, characterised in that, by means of these data, the draft and/or tension of the lap sliver can be adjusted at the winding machine for the next group of lap rolls for this combing machine via the lap length, wherein the draft and/or tension takes place at the winding machine by means of an actuation of at least one drawing unit and/or the change in the relative speed between two winding elements.
A method for preparing a ferrite-based coating catalyst, the method comprising: mixing a support, a ferrite-based catalyst, a cellulose-based additive, and water, wherein a the content of the cellulose-based additive is 0.5 wt% or less based on a the total weight of the ferrite-based catalyst, wherein the weight ratio of water based on the weight of the support is 0.1 or less, and wherein the ferrite-based catalyst is represented by the following Formula 1: [Formula 1] AFe 2 O 4 in Formula 1, Ais Cu, Ra, Ba, Sr, Ca, Be, Zn, Mg, Mn, Co, or Ni. mixing a support, a ferrite-based catalyst, a cellulose-based additive, and water, wherein a the content of the cellulose-based additive is 0.5 wt% or less based on a the total weight of the ferrite-based catalyst, wherein the weight ratio of water based on the weight of the support is 0.1 or less, and wherein the ferrite-based catalyst is represented by the following Formula 1: [Formula 1] AFe 2 O 4 in Formula 1, Ais Cu, Ra, Ba, Sr, Ca, Be, Zn, Mg, Mn, Co, or Ni.
A water-activated power generating device, comprising: a conductive cap; a top plate having an air vent; a silicon slice having a cut; a first water storage element; a fixing ring sandwiched by the silicon slice and the first water storage element and having an inner space; a conductive rod penetrating the top plate, the silicon slice, the fixing ring and the first water storage element, and electrically connected to the conductive cap; a hollow electrode structure; an isolation film disposed adjacent to an inner surface of the electrode structure; electrolytic powder disposed in a space between the isolation layer and the conductive rod; and a bottom conductive plate disposed at the bottom of the electrode structure and electrically connected to the inner surface of the electrode structure. a conductive cap; a top plate having an air vent; a silicon slice having a cut; a first water storage element; a fixing ring sandwiched by the silicon slice and the first water storage element and having an inner space; a conductive rod penetrating the top plate, the silicon slice, the fixing ring and the first water storage element, and electrically connected to the conductive cap; a hollow electrode structure; an isolation film disposed adjacent to an inner surface of the electrode structure; electrolytic powder disposed in a space between the isolation layer and the conductive rod; and a bottom conductive plate disposed at the bottom of the electrode structure and electrically connected to the inner surface of the electrode structure.
A mobile device for executing multiple applications, the mobile device comprising: a touch screen configured to display a first window where a first application is executed, a second window where a second application different from the first application is executed; and a controller configured to control the touch screen to display a first application execution icon for executing the first application and a second application execution icon for executing the second application, to simultaneously acquire a first execution input corresponding to the first application execution icon and a second execution input corresponding to the second application execution icon, and to display the first application on the first window and the second application on the second window based on the first execution input and the second execution input; wherein the first application execution icon and the second application execution icon are displayed separately on the touch screen. a touch screen configured to display a first window where a first application is executed, a second window where a second application different from the first application is executed; and a controller configured to control the touch screen to display a first application execution icon for executing the first application and a second application execution icon for executing the second application, to simultaneously acquire a first execution input corresponding to the first application execution icon and a second execution input corresponding to the second application execution icon, and to display the first application on the first window and the second application on the second window based on the first execution input and the second execution input; wherein the first application execution icon and the second application execution icon are displayed separately on the touch screen.
Wristwatch comprising: a case; an electronic display in said case; a microcontroller; a quartz oscillator; characterized in that: said microcontroller is arranged to reproduce on said electronic display the simulation of a visible mechanical watch movement in said case, comprising a geartrain and a regulating organ with a balance, a return organ and an escapement, and arranged to indicate the time, the microcontroller being arranged to calculate and display a simulation of the oscillations of said regulating organ displayed by taking account of the weight of said balance and of the rigidity of said return organ, the displayed time depending on said simulation, and in that the wristwatch also comprises means for synchronizing the time displayed by said displayed mechanical movement with said quartz oscillator. a case; an electronic display in said case; a microcontroller; a quartz oscillator; characterized in that: said microcontroller is arranged to reproduce on said electronic display the simulation of a visible mechanical watch movement in said case, comprising a geartrain and a regulating organ with a balance, a return organ and an escapement, and arranged to indicate the time, the microcontroller being arranged to calculate and display a simulation of the oscillations of said regulating organ displayed by taking account of the weight of said balance and of the rigidity of said return organ, the displayed time depending on said simulation, and in that the wristwatch also comprises means for synchronizing the time displayed by said displayed mechanical movement with said quartz oscillator. said microcontroller is arranged to reproduce on said electronic display the simulation of a visible mechanical watch movement in said case, comprising a geartrain and a regulating organ with a balance, a return organ and an escapement, and arranged to indicate the time, the microcontroller being arranged to calculate and display a simulation of the oscillations of said regulating organ displayed by taking account of the weight of said balance and of the rigidity of said return organ, the displayed time depending on said simulation, and in that the wristwatch also comprises means for synchronizing the time displayed by said displayed mechanical movement with said quartz oscillator.
A surface sub for a wired pipe system, the surface sub comprising: a body including an outer surface and a pin end; a first transmission device located in or near the pin end and at an end of the body and outside of the inner bore such that the fluid passes through the first transmission device during drilling; a communication collar that at least partially surrounds the outer surface and that is rotatable relative to the body; a second transmission device in electrical communication with the first transmission device and located on the outer surface of the body; a transmission line that electrically connects the first and second transmission devices (34, 103) and that passes at least partially through the body; and a third transmission device located in the communication collar in communication with the second transmission device; wherein the first, second and third transmission devices (34, 103, 131) are all of the same type. a body including an outer surface and a pin end; a first transmission device located in or near the pin end and at an end of the body and outside of the inner bore such that the fluid passes through the first transmission device during drilling; a communication collar that at least partially surrounds the outer surface and that is rotatable relative to the body; a second transmission device in electrical communication with the first transmission device and located on the outer surface of the body; a transmission line that electrically connects the first and second transmission devices (34, 103) and that passes at least partially through the body; and a third transmission device located in the communication collar in communication with the second transmission device; wherein the first, second and third transmission devices (34, 103, 131) are all of the same type.
An industrial gear lubricating composition comprising (i) an oil of lubricating viscosity and (ii) a substituted triazole; and (iii) a sulfurized olefin containing at least 20% by weight sulfur; where the substituted triazole includes at least one hydrocarbyl group linked to one of the nitrogen atoms in the triazole ring and wherein the substituted triazole comprises a compound having the formula: where: n is an integer from 0 to 4; - R is a hydrocarbyl group; - Y is -(R 2) m -NR 3 R 3 where - R 2 - is a hydrocarbylene group, m is 0 or 1, and each -R 3 is independently hydrogen or a hydrocarbyl group, so long as the sum of carbon atoms in the -R 2 group and both -R 3 groups is from 7 to 40 combined, wherein a hydrocarbyl group optionally contains no more than two non-hydrocarbyl substituents present for every ten carbon atoms in the hydrocarbyl group, and wherein the substituted triazole is present in the lubricating composition from 0.05 to 1.0 percent by weight. n is an integer from 0 to 4; - R is a hydrocarbyl group; - Y is -(R 2) m -NR 3 R 3 where - R 2 - is a hydrocarbylene group, m is 0 or 1, and each -R 3 is independently hydrogen or a hydrocarbyl group, so long as the sum of carbon atoms in the -R 2 group and both -R 3 groups is from 7 to 40 combined, - R is a hydrocarbyl group; - Y is -(R 2) m -NR 3 R 3 where - R 2 - is a hydrocarbylene group, m is 0 or 1, and each -R 3 is independently hydrogen or a hydrocarbyl group, so long as the sum of carbon atoms in the -R 2 group and both -R 3 groups is from 7 to 40 combined, - R 2 - is a hydrocarbylene group, m is 0 or 1, and each -R 3 is independently hydrogen or a hydrocarbyl group, so long as the sum of carbon atoms in the -R 2 group and both -R 3 groups is from 7 to 40 combined,