mhurhangee/ep-ind-claims huggingface dataset:
A wireless device, comprising: at least one antenna; a radio operably coupled to the at least one antenna; and a processor operably coupled to the radio; wherein the wireless device is configured to: transition to a radio resource control, RRC, connected state with a cellular base station; determine to fall back to a preferred RRC state rather than staying in the RRC connected state; transmit, to the cellular base station, assistance information in an RRC message including the preferred RRC state, wherein the preferred RRC state is selected from a group including an RRC inactive state and an RRC idle state and is indicated in the assistance information, wherein the assistance information indicates the determination of the UE to fall back to the preferred RRC state rather than staying in the RRC connected state; receive, from the cellular base station, an indication to transition to the preferred RRC state; and transition to the preferred RRC state. at least one antenna; a radio operably coupled to the at least one antenna; and a processor operably coupled to the radio; wherein the wireless device is configured to: transition to a radio resource control, RRC, connected state with a cellular base station; determine to fall back to a preferred RRC state rather than staying in the RRC connected state; transmit, to the cellular base station, assistance information in an RRC message including the preferred RRC state, wherein the preferred RRC state is selected from a group including an RRC inactive state and an RRC idle state and is indicated in the assistance information, wherein the assistance information indicates the determination of the UE to fall back to the preferred RRC state rather than staying in the RRC connected state; receive, from the cellular base station, an indication to transition to the preferred RRC state; and transition to the preferred RRC state. transition to a radio resource control, RRC, connected state with a cellular base station; determine to fall back to a preferred RRC state rather than staying in the RRC connected state; transmit, to the cellular base station, assistance information in an RRC message including the preferred RRC state, wherein the preferred RRC state is selected from a group including an RRC inactive state and an RRC idle state and is indicated in the assistance information, wherein the assistance information indicates the determination of the UE to fall back to the preferred RRC state rather than staying in the RRC connected state; receive, from the cellular base station, an indication to transition to the preferred RRC state; and transition to the preferred RRC state.
A method of applying a heat-shrinkable sleeve to a portion of a pipe, the method including the following steps: - providing a pipe, - arranging a heat-shrinkable sleeve around a portion of the pipe, - arranging a heat-delivery apparatus around the pipe in the region of the sleeve, the heat-delivery apparatus including at least three heater devices arranged at different positions along the axis of the pipe, such that a first heater device is positioned closer to the centre of the sleeve, in the axial direction, than second and third heater devices, the second heater device is positioned in the region of a first end of the sleeve, and the third heater device is positioned in the region of a second end of the sleeve opposite to the first end, and - operating the first, second and third heater devices to apply heat to the heat-shrinkable sleeve, wherein during heat-shrinking of the sleeve, the method includes the step of sensing the temperature of the sleeve or in the region of the sleeve and then using the temperature so sensed to control the driving of at least one of the heater devices; and characterised in that the heating elements of each of said at least three heater devices are in the form of a plurality of infrared heaters, wherein each infrared heater is a panel with a flat heating face. - providing a pipe, - arranging a heat-shrinkable sleeve around a portion of the pipe, - arranging a heat-delivery apparatus around the pipe in the region of the sleeve, the heat-delivery apparatus including at least three heater devices arranged at different positions along the axis of the pipe, such that a first heater device is positioned closer to the centre of the sleeve, in the axial direction, than second and third heater devices, the second heater device is positioned in the region of a first end of the sleeve, and the third heater device is positioned in the region of a second end of the sleeve opposite to the first end, and a first heater device is positioned closer to the centre of the sleeve, in the axial direction, than second and third heater devices, the second heater device is positioned in the region of a first end of the sleeve, and the third heater device is positioned in the region of a second end of the sleeve opposite to the first end, and - operating the first, second and third heater devices to apply heat to the heat-shrinkable sleeve,
An in-situ incremental reheating system configured to increase steam temperature and thermodynamic efficiencies of a steam turbine, comprising: (a) a pump; (b) a radiant heater; (c) piping inter-connecting the pump, radiant heater and steam turbine to create a flow circuit; (d) a heat transfer material configured to flow through the flow circuit and transfer heat directly to steam used in the steam turbine, wherein the pump moves the heat transfer material through the flow circuit and the radiant heater regenerates the heat transfer material after the heat transfer material transfers heat to the steam; characterised in that the heat transfer material flows through internal flow passages of stator blades of the steam turbine to transfer heat directly to the steam. (a) a pump; (b) a radiant heater; (c) piping inter-connecting the pump, radiant heater and steam turbine to create a flow circuit; (d) a heat transfer material configured to flow through the flow circuit and transfer heat directly to steam used in the steam turbine, wherein the pump moves the heat transfer material through the flow circuit and the radiant heater regenerates the heat transfer material after the heat transfer material transfers heat to the steam;
A method of encoding a control message to be transmitted by user equipment to a network node (20, 40) in a wireless telecommunication network on a random access channel, said control message comprising user equipment configuration information, said method comprising the steps of: collating said configuration information to be encoded into said control message; determining whether said collated configuration information can be encoded into a control message block of a predetermined size; characterised by if said collated configuration information exceeds said predetermined size partitioning said configuration information and encoding said partitioned configuration information into a plurality of control message blocks of said predetermined size; and transmitting said plurality of control message blocks to said network node, together with decoding information which indicates how to decode said control message blocks to form said control message, wherein at least one of said control message blocks is transmitted from said user equipment to said network node on a random access channel of a first radio carrier, and at least one of said control message blocks is transmitted from said user equipment to said network node on a random access channel of a second radio carrier. collating said configuration information to be encoded into said control message; determining whether said collated configuration information can be encoded into a control message block of a predetermined size; characterised by if said collated configuration information exceeds said predetermined size partitioning said configuration information and encoding said partitioned configuration information into a plurality of control message blocks of said predetermined size; and transmitting said plurality of control message blocks to said network node, together with decoding information which indicates how to decode said control message blocks to form said control message, wherein at least one of said control message blocks is transmitted from said user equipment to said network node on a random access channel of a first radio carrier, and at least one of said control message blocks is transmitted from said user equipment to said network node on a random access channel of a second radio carrier.
A stator of an electrical machine comprising: a plurality of winding slots provided in a surface of the stator; and a stator winding, the stator winding comprising a plurality of coils arranged in the winding slots in at least two tiers, each coil having: a longitudinal axis, a first endwinding that is substantially parallel to the longitudinal axis, and a second endwinding that is bent at an angle with respect to the longitudinal axis; characterised in that the plurality of coils comprises a first set of coils defining a first tier of the stator winding having their second endwindings at one end of the stator and bent away from an axis of the stator, and a second set of coils defining a second tier of the stator winding having their second endwindings at an opposite end of the stator and bent towards the axis of the stator. a plurality of winding slots provided in a surface of the stator; and a stator winding, the stator winding comprising a plurality of coils arranged in the winding slots in at least two tiers, each coil having: a longitudinal axis, a first endwinding that is substantially parallel to the longitudinal axis, and a second endwinding that is bent at an angle with respect to the longitudinal axis; a longitudinal axis, a first endwinding that is substantially parallel to the longitudinal axis, and a second endwinding that is bent at an angle with respect to the longitudinal axis; characterised in that the plurality of coils comprises a first set of coils defining a first tier of the stator winding having their second endwindings at one end of the stator and bent away from an axis of the stator, and a second set of coils defining a second tier of the stator winding having their second endwindings at an opposite end of the stator and bent towards the axis of the stator.
A noble metal-containing titanosilicate material, wherein said material is represented by xTiO 2 ·100SiO 2 ·yEO m ·zE in an oxide form, wherein x ranges from 0.001 to 50.0; (y+z) ranges from 0.0001 to 20.0 and y/z is from 0.01/6.4 to less than 5; E represents one or more noble metals selected from the group consisting of Ru, Rh, Pd, Re, Os, Ir, Pt, Ag and Au; m is a number satisfying the oxidation state of E; and the crystal grains of said material contain hollow structures, wherein the cavity portion of the hollow crystal grains has a radial length of 0.5 to 300 nm, and wherein the benzene adsorption capacity of said material is at least 35 mg/g, measured under the conditions of a temperature of 25°C, P/P 0 = 0.10 and the adsorption time of 1 h.
A wind park control system for controlling a reactive power output of a plurality of wind turbines (105, 106, 107) of a wind park, wherein the wind park is adapted to deliver active power and reactive power to a utility grid, the wind park control system comprising a determination unit being adapted to determine a total amount of reactive power being required by the utility grid and being adapted to determine for each wind turbine (105, 106, 107) an individual amount of reactive power, which the wind turbine (105, 106, 107) is capable to deliver, a calculation unit being adapted to calculate a capability scheme, wherein the capability scheme comprises an order for the plurality of wind turbines (105, 106, 107) according to which order the wind turbines (105, 106, 107) are selected for delivering reactive power, wherein the capability scheme is calculated based on the determined individual amount of reactive power of each wind turbine (105, 106, 107) and the total electrical power loss being contributed by each connection of all the wind turbines (105, 106, 107) to the utility grid, and an adjustment unit being adapted to adjust an actual amount of reactive power to be provided by the plurality of wind turbines (105, 106, 107), wherein the reactive power output of each wind turbine (105, 106, 107) is controlled based on the calculated capability scheme characterized in that the wind turbines (105, 106, 107) are selected for delivering reactive power in the order of the capability scheme, such that the determined total amount of reactive power is fulfilled.
Chassis for a rail vehicle with, in particular, inside-supported wheelsets supported in wheelset bearings, in which the wheelsets and their drive unit consisting of electric motor, gearbox and clutch, are elastically supported in a chassis frame, and the wheelset bearings each have a housing, wherein at least parts of the drive unit are moveably elastically supported transversely to the travel direction by means of spring devices (14, 14a), characterised in that the spring device (14, 14a) is fastened to the housing of at least one of the wheelset bearings.
An air-conditioning apparatus comprising: an outdoor unit including a compressor; an indoor unit; inlet temperature detection means that detects an indoor inlet temperature; and a controller that performs control of reducing an operating frequency of the compressor as a difference between the indoor inlet temperature and a set temperature decreases, wherein the controller determines that a thermo-off condition is satisfied in a case where the indoor inlet temperature is less than or equal to a thermo-off set temperature in a cooling mode or the indoor inlet temperature is greater than or equal to the thermo-off set temperature in a heating mode; if the thermo-off condition is satisfied, the controller determines whether thermo-off postponement control is allowed or not on the basis of a current operating frequency of the compressor, if the controller determines that the thermo-off postponement control is allowed, the controller performs thermo-off postponement control in which a lowest operating frequency in an operating frequency range of the compressor is temporarily reduced within a range greater than or equal to a minimum operating frequency of the compressor in use and an operation is continued, and if the controller determines that the thermo-off postponement control is not allowed, the controller performs thermo-off in which the compressor is stopped. an outdoor unit including a compressor; an indoor unit; inlet temperature detection means that detects an indoor inlet temperature; and a controller that performs control of reducing an operating frequency of the compressor as a difference between the indoor inlet temperature and a set temperature decreases, wherein the controller determines that a thermo-off condition is satisfied in a case where the indoor inlet temperature is less than or equal to a thermo-off set temperature in a cooling mode or the indoor inlet temperature is greater than or equal to the thermo-off set temperature in a heating mode; if the thermo-off condition is satisfied, the controller determines whether thermo-off postponement control is allowed or not on the basis of a current operating frequency of the compressor, if the controller determines that the thermo-off postponement control is allowed, the controller performs thermo-off postponement control in which a lowest operating frequency in an operating frequency range of the compressor is temporarily reduced within a range greater than or equal to a minimum operating frequency of the compressor in use and an operation is continued, and if the controller determines that the thermo-off postponement control is not allowed, the controller performs thermo-off in which the compressor is stopped.
A vehicle suspension comprising a pair of leaf spring assemblies arranged to extend longitudinally on opposed sides of a vehicle frame, each leaf spring assembly having a first end (223, 224) pivotally connected to the vehicle with a first bracket attached rigidly to the frame at a first position; and a second end (225, 226) connected to the vehicle frame with a spring shackle pivotably connected to a second bracket attached rigidly to the frame at a second position, in order to compensate for length changes of the leaf spring under load conditions, said suspension further comprising an axle extending transversely of the vehicle frame which axle is mounted to each upper leaf spring (221, 222; 404, 405; 504, 505) at a position intermediate its first and second ends (223, 224; 225, 226), and a damper means (114; 214) mounted between the axle (109; 212) and the vehicle frame (102; 202), characterized in that said leaf spring assembly comprises two individual upper leaf springs (221, 222; 404, 405; 504, 505) arranged side-by-side in the same plane with a predetermined spacing and extending between said first and second ends (223, 224; 225, 226), and at least one individual lower leaf spring arrangement (220; 421; 521,523) arranged below the upper leaf springs (221, 222; 404, 405; 504, 505), wherein each individual upper leaf spring (221, 222; 404, 405; 504, 505) comprises a spring eye (223, 224; 225, 226) at the first end of the leaf spring assembly, each spring eye being mounted on a common bushing comprising a central first spacer with a width equal to the predetermined spacing.
Injector cup for a fluid injection assembly for an internal combustion engine, wherein the injector cup comprises: - a cup body extending along a central longitudinal axis of the injector cup from a first axial end of the cup body to a second axial end of the cup body and - a cup ring element which adjoins the border of the second axial end by radially extending beyond said border, wherein a base surface of the cup ring element faces away from the first axial end and defines a cup reference plane which extends orthogonally to the longitudinal axis, and wherein the cup ring element comprises two wings, wherein each wing has a free end section which extends bent away from the cup reference plane at the side of the cup reference plane which faces towards the cup body, wherein the two wings are spaced from each other and wherein a through opening is provided in the cup ring element between the two wings, characterized in that a cut line or a recess forming a shape like a T-profile with the through opening extends along the base surface in order to create the two wings each having an end face extending parallel or slightly inclined to the cup reference plane, wherein the end section of each wing bends away from the cup reference plane. - a cup body extending along a central longitudinal axis of the injector cup from a first axial end of the cup body to a second axial end of the cup body and - a cup ring element which adjoins the border of the second axial end by radially extending beyond said border, wherein a base surface of the cup ring element faces away from the first axial end and defines a cup reference plane which extends orthogonally to the longitudinal axis, and wherein the cup ring element comprises two wings, wherein each wing has a free end section which extends bent away from the cup reference plane at the side of the cup reference plane which faces towards the cup body, wherein the two wings are spaced from each other and wherein a through opening is provided in the cup ring element between the two wings, characterized in that a cut line or a recess forming a shape like a T-profile with the through opening extends along the base surface in order to create the two wings each having an end face extending parallel or slightly inclined to the cup reference plane, wherein the end section of each wing bends away from the cup reference plane.
A lock with a latch bolt (4, 104), with a nut (2, 102), with a receptacle for a lock cylinder and with a slide (10, 110), wherein the latch bolt (4, 104) can be moved between a retracted unlocking position, a middle partially protruding latch position and a completely protruding bolt position and wherein the latch bolt (4, 104) can be pushed back against a spring force from the latch position into the unlocking position and is supported in the bolt position against being pushed back, characterized in that the latch bolt (4, 104) is supported in the bolt position by two support points (20, 23) spatially separated from one another.
A retractable awning, comprising: - a piece of fabric fixed to at least one cross-piece which can be moved along guide means; - at least one element which is guided slidably in the guide means and which can be fixed to the cross-piece; - means of connecting the slidable element to the cross-piece; the connecting means being of the snap-fit type and comprising a first element, placed on one of the slidable element and the cross-piece, a second element, placed on the other of the slidable element and the cross-piece, the first and second elements being capable of being fitted together, and a third element which is resiliently deformable between a first position in which the first and second elements can be fitted together and a second position in which the first and second elements are held together by the third element in at least one direction along the direction of fitting; the first element being a projection and the second element comprising a housing (10, 10a), the projection being capable of being fitted into the said housing (10, 10a); the projection being formed on the said slidable element and the housing (10, 10a) being associated with the cross-piece; said retractable awning being characterized in that: - the housing (10, 10a) is removably connected to the said cross-piece; - the direction of fitting is parallel to the said guide means. - a piece of fabric fixed to at least one cross-piece which can be moved along guide means; - at least one element which is guided slidably in the guide means and which can be fixed to the cross-piece; - means of connecting the slidable element to the cross-piece; - the housing (10, 10a) is removably connected to the said cross-piece; - the direction of fitting is parallel to the said guide means.
Gas valve unit for setting a gas volumetric flow supplied to a gas burner of a gas appliance, in particular a gas cooking appliance, wherein the gas valve unit has at least three on/off valves (4.1, 4.2, 4.3), wherein the at least three on/off valves (4.1, 4.2, 4.3) can be actuated mechanically by moving at least one body relative to the on/off valves (4.1, 4.2, 4.3) and wherein the at least one body and the on/off valves (4.1, 4.2, 4.3) are embodied in such a manner that either no on/off valve (4.1, 4.2, 4.3) or just one on/off valve (4.1) or just two on/off valves (4.1, 4.2) or just one further on/off valve (4.2) are opened as a function of the position of the at least one body.