mhurhangee/patent-ind-claim-en huggingface dataset:
An engagement chain comprising at least two chain members that are capable of selectively advancing and retreating, wherein the chain members are engaged to be integrated with each other by moving in an advancing direction (Z1) , the chain members are disengaged from each other to bifurcate by moving in a retreating direction (Z2) from an engaged state in which the chain members are integrated with each other, wherein each of the chain members includes a plurality of link plates , each having two pin holes , and a plurality of coupling pins , each of the chain members is configured by pivotally coupling the link plates in series by the coupling pins in the pin holes , characterised in that the two pin holes of each link plate are aligned in an advancing/retreating direction (Z) of the chain members and are sized differently from each other, each of the coupling pins of each chain member is tightly received in the smaller one of the two pin holes of one of any adjacent two of the link plates in the advancing/retreating direction (Z) and is loosely received in the larger one of the two pin holes of the other one of the two adjacent link plates , and in a state in which the chain members are engaged so as to be integrated with each other, any two of the coupling pins that are opposed to each other in a direction perpendicular to both the advancing/retreating direction (Z) and a direction in which each coupling pin extends are in the same received states in the corresponding pin holes .
A crystalline form of the compound 2-(3-(8-amino-6-(trifluoromethyl)imidazo[1,2-a]pyrazin-3 -yl)-4-methylphenyl)-3,3,3 -trifluoro-2-hydroxypropanamide.
A method of controlling blisters in a molded body with a hollow portion comprising fluorinated tetrafluoroethylene and perfluoro(alkyl vinyl ether) copolymer, comprising heat treating a melt-molded body comprising fluorinated tetrafluoroethylene and perfluoro(alkyl vinyl ether) copolymer, wherein said copolymer has a melt flow rate of 0.1 to 100 g/10 min when measured at a load of 5 kg and a measurement temperature of 372 ± 0.1 °C in accordance with ASTM D1238, and wherein said heat treating is performed at a temperature of from 130°C below the melting point of said copolymer to the melting point of said copolymer.
A guide device for guiding a furniture part , in particular a sliding door or folding sliding door, comprising at least one guide rail and at least one chassis which can be connected to the furniture part and can travel on the at least one guide rail , wherein the at least one chassis has at least one carrying roller mounted about a first axis of rotation (D1) for supporting the weight of the furniture part and at least one supporting roller for laterally guiding the furniture part , wherein the at least one supporting roller is mounted rotatably about a second axis of rotation (D2) aligned transverse to the first axis of rotation (D1), wherein at least one support device separate from the at least one supporting roller is provided which is formed to relieve the pressure on the at least one supporting roller in at least one end position of the at least one guide rail against a transverse force acting laterally, i.e. substantially parallel to the first axis of rotation (D1), wherein the at least one support device has at least one rolling body , wherein the at least one support device has a first part and at least one second part , which are movable relative to each other and are coupled to each other in a first position in order to relieve the pressure on the at least one supporting roller against the transverse force, and are decoupled from each other at least in a second position, wherein one of the at least two parts of the at least one support device has a U-shaped profile which can be arranged fixed and detachably coupled to the at least one rolling body of the second of the at least two parts of the at least one support device , characterized in that at least one mounting device for the rotatable mounting of the at least one rolling body is provided, wherein the mounting device has a base part and a bearing pin arranged thereon, wherein the bearing pin has two end regions , wherein the at least one rolling body is rotatably mounted on a first end region and the at least one supporting roller is rotatably mounted on a second end region .
Container comprising a polyester, said container further comprising 0.1-5 % of polymethylpentene and 0.1-8 % of titanium dioxide, based on total weight of the container.
A method for determining a numerology, wherein the method comprises: detecting, by a terminal, an initial synchronization signal according to a default numerology; wherein there is a correspondence relationship between the default numerology and a frequency band, and the detecting the initial synchronization signal according to the default numerology comprises: determining, by the terminal, the default numerology corresponding to a frequency band on which the initial synchronization signal is to be detected by the terminal, according to the correspondence relationship between the default numerology and the frequency band; and detecting, by the terminal, the frequency band for the initial synchronization signal according to the determined default numerology; determining (S21), by the terminal, a Transmission Reception Point, TRP, group to which the terminal belongs according to the detected initial synchronization signal, wherein the initial synchronization signal comprises a first synchronization signal and/or a second synchronization signal; and determining (S22), by the terminal, a numerology according to a third synchronization signal detected in the TRP group, and/or system information of the TRP group; wherein the numerology comprises at least a sub-carrier spacing. detecting, by a terminal, an initial synchronization signal according to a default numerology; wherein there is a correspondence relationship between the default numerology and a frequency band, and the detecting the initial synchronization signal according to the default numerology comprises: determining, by the terminal, the default numerology corresponding to a frequency band on which the initial synchronization signal is to be detected by the terminal, according to the correspondence relationship between the default numerology and the frequency band; and detecting, by the terminal, the frequency band for the initial synchronization signal according to the determined default numerology; determining, by the terminal, the default numerology corresponding to a frequency band on which the initial synchronization signal is to be detected by the terminal, according to the correspondence relationship between the default numerology and the frequency band; and detecting, by the terminal, the frequency band for the initial synchronization signal according to the determined default numerology; determining (S21), by the terminal, a Transmission Reception Point, TRP, group to which the terminal belongs according to the detected initial synchronization signal, wherein the initial synchronization signal comprises a first synchronization signal and/or a second synchronization signal; and determining (S22), by the terminal, a numerology according to a third synchronization signal detected in the TRP group, and/or system information of the TRP group; wherein the numerology comprises at least a sub-carrier spacing.
A method of configuring a starting position of a channel, performed by a Base Station, BS, in a time domain in a wireless Long Term Evolution - Advanced, LTE-A, communication system, the method comprising: transmitting position information informing of a starting position of an Enhanced Physical Downlink Control Channel, EPDCCH, through a Radio Resource Control, RRC, message; and transmitting a Physical Downlink Shared Channel, PDSCH, wherein if the PDSCH is assigned by the EPDCCH in a same serving cell, a starting OFDM symbol for the PDSCH is given by the position information. transmitting position information informing of a starting position of an Enhanced Physical Downlink Control Channel, EPDCCH, through a Radio Resource Control, RRC, message; and transmitting a Physical Downlink Shared Channel, PDSCH, wherein if the PDSCH is assigned by the EPDCCH in a same serving cell, a starting OFDM symbol for the PDSCH is given by the position information.
Wind turbines, comprising a frame on a floating pontoon where the frame is constructed as a lattice-shaped rig upright on the pontoon forming a plurality of rectangular or square openings in the rig for receiving respective interchangeable wind turbine generators with associated drive propellers driven by incoming wind , wherein - each turbine generator comprises one or more pairs of propeller blades (14a, b) forming a propeller set having a blade diameter defining the turbine rotational plane , and - each propeller set is arranged at a distance in front of the front side of the rig , and is configured to be rotated by the incoming wind towards the rig , characterized in that each wind turbine generator is being arranged to be moved up to the rear of the rig and through the openings towards the rig's front side . - each turbine generator comprises one or more pairs of propeller blades (14a, b) forming a propeller set having a blade diameter defining the turbine rotational plane , and - each propeller set is arranged at a distance in front of the front side of the rig , and is configured to be rotated by the incoming wind towards the rig , characterized in that each wind turbine generator is being arranged to be moved up to the rear of the rig and through the openings towards the rig's front side .
An unloading and temporary storage device, comprising at least a stock bin , a stock bin external member , a stock bin internal member , a shielding module and a loading module ; the stock bin comprises a barrel and a tank body that are disposed sequentially from top to bottom; the stock bin external member comprises a cooling water jacket provided outside the barrel ; the stock bin internal member comprises a straight bin disposed in the barrel , an inclined bin and an unloading bin disposed in the tank body ; wherein the straight bin , the inclined bin and the unloading bin communicate sequentially; the shielding module comprises an external shield disposed outside the barrel and a neutron shield disposed outside the external shield ; and the loading module comprises a loading body disposed at top of the barrel ; wherein sphere inlet passages are provided in the loading body, and a lower end of the loading body is connected with sphere outlet pipelines ; one end of the sphere outlet pipeline communicates with the sphere inlet passage, and the other end of the sphere outlet pipeline is in contact with a wall of the barrel and communicates with the straight bin ; the sphere inlet passage and the sphere outlet pipeline form a redirecting flow passage for allowing spherical elements to flow in a redirected manner. the stock bin comprises a barrel and a tank body that are disposed sequentially from top to bottom; the stock bin external member comprises a cooling water jacket provided outside the barrel ; the stock bin internal member comprises a straight bin disposed in the barrel , an inclined bin and an unloading bin disposed in the tank body ; wherein the straight bin , the inclined bin and the unloading bin communicate sequentially; the shielding module comprises an external shield disposed outside the barrel and a neutron shield disposed outside the external shield ; and the loading module comprises a loading body disposed at top of the barrel ; wherein sphere inlet passages are provided in the loading body, and a lower end of the loading body is connected with sphere outlet pipelines ; one end of the sphere outlet pipeline communicates with the sphere inlet passage, and the other end of the sphere outlet pipeline is in contact with a wall of the barrel and communicates with the straight bin ; the sphere inlet passage and the sphere outlet pipeline form a redirecting flow passage for allowing spherical elements to flow in a redirected manner.
A method for electrifying a rail network , a plurality of charging stations being provided within the rail network in an earlier, first operating phase of the rail network , and the charging stations each being adapted for transferring electrical energy from a supply power network to an electrically chargeable energy storage device of a rail vehicle; characterized in that in a later, second operating phase of the rail network , a rail traffic power network , that has been set up as part of an electrification, is provided in such a way that, within the rail network at least in some areas, it is possible to supply power to a rail vehicle over a travel distance of several kilometers, wherein the power supply along the travel distance is made possible by the electrification of the travel distance; wherein the charging stations already present in the first operating phase are each used in the second operating phase as energy feed devices to feed energy into the rail transportation power network in order to supply the rail traffic power network with electricity and to form a substation of the rail traffic power network . in a later, second operating phase of the rail network , a rail traffic power network , that has been set up as part of an electrification, is provided in such a way that, within the rail network at least in some areas, it is possible to supply power to a rail vehicle over a travel distance of several kilometers, wherein the power supply along the travel distance is made possible by the electrification of the travel distance; wherein the charging stations already present in the first operating phase are each used in the second operating phase as energy feed devices to feed energy into the rail transportation power network in order to supply the rail traffic power network with electricity and to form a substation of the rail traffic power network .
A sensor arrangement comprising: at least two displaced first sensors arranged in parallel in a first plane and next to each other, and adapted to measure a quantity of a fluid flow ; and a control unit adapted to determine, from the measured quantity of the fluid flow , information indicating at least a range of directions of the fluid flow in two dimensions, wherein the first sensors are hot wire, hot plate, constant temperature or constant current anemometers. at least two displaced first sensors arranged in parallel in a first plane and next to each other, and adapted to measure a quantity of a fluid flow ; and a control unit adapted to determine, from the measured quantity of the fluid flow , information indicating at least a range of directions of the fluid flow in two dimensions, wherein the first sensors are hot wire, hot plate, constant temperature or constant current anemometers.
An apparatus for mining vehicle positioning, the apparatus comprising at least one processor and at least one memory storing computer program code configured to, when executed by the at least one processor , cause the apparatus at least to: - detect a first position of a mining vehicle with reference to a first worksite model, - receive information on a plurality of transformation matrices associated with the first worksite model, - select a transformation matrix associated with the first worksite model based on the first position of the mining vehicle , - perform , based on the selected transformation matrix , a coordinate transformation from input coordinates indicative of a second position of the mining vehicle in the first worksite model to transformed coordinates of a second worksite model, and - provide the transformed coordinates to represent the second position of the mining vehicle for performing mining automation control by a control device of a mining automation system or a control unit of a mining vehicle based on the second worksite model. - detect a first position of a mining vehicle with reference to a first worksite model, - receive information on a plurality of transformation matrices associated with the first worksite model, - select a transformation matrix associated with the first worksite model based on the first position of the mining vehicle , - perform , based on the selected transformation matrix , a coordinate transformation from input coordinates indicative of a second position of the mining vehicle in the first worksite model to transformed coordinates of a second worksite model, and - provide the transformed coordinates to represent the second position of the mining vehicle for performing mining automation control by a control device of a mining automation system or a control unit of a mining vehicle based on the second worksite model.
A powdered material consisting of metal particles having a polymer with organic acid or latent organic acid functional groups coated on at least a portion of a surface thereof, wherein the metal particles are solder powder and are made from an alloy selected from the group consisting of tin/silver/copper, tin/zinc, tin/bismuth, tin/lead, and tin/indium/bismuth alloys, and wherein the coating on the metal particles is in the range from 0.001 to 1 μm in thickness, characterized in that the polymer with organic acid or latent organic acid functional groups is a copolymer of polyethylene and maleic anhydride or a copolymer of polybutadiene and maleic anhydride, wherein the maleic anhydride content of said copolymers is from 0.1 to 5 wt.%. wherein the metal particles are solder powder and are made from an alloy selected from the group consisting of tin/silver/copper, tin/zinc, tin/bismuth, tin/lead, and tin/indium/bismuth alloys, and wherein the coating on the metal particles is in the range from 0.001 to 1 μm in thickness, characterized in that the polymer with organic acid or latent organic acid functional groups is a copolymer of polyethylene and maleic anhydride or a copolymer of polybutadiene and maleic anhydride, wherein the maleic anhydride content of said copolymers is from 0.1 to 5 wt.%.
Aerosol-generating device comprising: A heating arrangement, the heating arrangement comprising an induction coil , a first contact , a second contact and a third contact ; and a controller , wherein the first contact is arranged contacting a proximal end of the induction coil, wherein the second contact is arranged contacting a distal end of the induction coil, wherein the third contact is arranged contacting the induction coil between the first contact and the second contact, wherein the first, second and third contacts are electrically connected to the controller, wherein the controller is configured to control supply of an alternating electrical current between only a pair of the first, second and third contacts, and wherein the first contact and the second contact are fixed contacts and the third contact is configured as a movable contact. A heating arrangement, the heating arrangement comprising an induction coil , a first contact , a second contact and a third contact ; and a controller , wherein the first contact is arranged contacting a proximal end of the induction coil, wherein the second contact is arranged contacting a distal end of the induction coil, wherein the third contact is arranged contacting the induction coil between the first contact and the second contact, wherein the first, second and third contacts are electrically connected to the controller, wherein the controller is configured to control supply of an alternating electrical current between only a pair of the first, second and third contacts, and wherein the first contact and the second contact are fixed contacts and the third contact is configured as a movable contact.
A method for determining an efficiency of a drivetrain , in particular a drivetrain of a wind turbine, wherein the drivetrain has a motor-side end on a main shaft connectable to a motor and a generator-side end, between which ends a generator is arranged, wherein the engine and the generator may run both in motor and in generator operation, wherein in a first test, the motor-side end of the drivetrain is driven and a variable dependent on the main shaft torque is determined at the motor-side end of the drivetrain and an electrical power P elec is determined at the generator-side end of the drivetrain , characterized in that in a second test, the generator-side end of the drivetrain is driven by the generator as a motor, and the variable dependent on the main shaft torque is likewise determined at the motor-side end and the electrical power P elec is determined at the generator-side end, and an efficiency is determined from the electrical power values and the variables dependent on the main shaft torque determined in the first test and in the second test, in particular while taking into consideration at least one assumption predetermined on the basis of experiments or experience. wherein in a first test, the motor-side end of the drivetrain is driven and a variable dependent on the main shaft torque is determined at the motor-side end of the drivetrain and an electrical power P elec is determined at the generator-side end of the drivetrain , characterized in that in a second test, the generator-side end of the drivetrain is driven by the generator as a motor, and the variable dependent on the main shaft torque is likewise determined at the motor-side end and the electrical power P elec is determined at the generator-side end, and an efficiency is determined from the electrical power values and the variables dependent on the main shaft torque determined in the first test and in the second test, in particular while taking into consideration at least one assumption predetermined on the basis of experiments or experience.
A gas turbine engine defining a centerline axis , the gas turbine engine comprising: a compressor section ; a heat exchanger ; a turbine section ; a combustor assembly comprising a volute walled enclosure defining a spiral scroll pitch axis disposed at least partially circumferentially around a centerline axis of the gas turbine engine , wherein the walled enclosure is defined around the pitch axis , the walled enclosure defining a combustion chamber therewithin and an outer casing surrounding the volute walled enclosure ; and a plurality of inlet members defining a plurality of airfoils positioned around the centerline axis , wherein the plurality of members define an inlet opening at the outer casing in fluid communication with an upstream end of the walled enclosure ; and wherein a primary flowpath extends from the compressor section through the heat exchanger and into the inlet opening at the outer casing entering the combustion chamber and exiting through the turbine section . a compressor section ; a heat exchanger ; a turbine section ; a combustor assembly comprising a volute walled enclosure defining a spiral scroll pitch axis disposed at least partially circumferentially around a centerline axis of the gas turbine engine , wherein the walled enclosure is defined around the pitch axis , the walled enclosure defining a combustion chamber therewithin and an outer casing surrounding the volute walled enclosure ; and a plurality of inlet members defining a plurality of airfoils positioned around the centerline axis , wherein the plurality of members define an inlet opening at the outer casing in fluid communication with an upstream end of the walled enclosure ; and wherein a primary flowpath extends from the compressor section through the heat exchanger and into the inlet opening at the outer casing entering the combustion chamber and exiting through the turbine section .