mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for signal processing, comprising: a first power amplifier receiving a first input signal and providing power amplification for the first input signal when the first power amplifier is selected; a first matching circuit coupled to the first power amplifier and providing a first output signal (RFout1); a second power amplifier receiving a second input signal, the first and second input signals being a common input signal, and providing power amplification for the second input signal when the second power amplifier is selected; a second matching circuit coupled to the second power amplifier and providing a second output signal (RFout2); and a first plurality of switches (328a, 328b) coupled to inputs of the first and second power amplifiers and a second plurality of switches (344a, 344b) coupled to outputs of the first and second matching circuits, wherein the apparatus supports a plurality of modes of operation, each mode corresponding to a particular radio technology, and each power amplifier supporting at least two modes of operation; and the first and second pluralities of switches are configured to allow zero, one or both of the first and second power amplifiers to be selected to perform power amplification for the common input signal in each supported mode. a first power amplifier receiving a first input signal and providing power amplification for the first input signal when the first power amplifier is selected; a first matching circuit coupled to the first power amplifier and providing a first output signal (RFout1); a second power amplifier receiving a second input signal, the first and second input signals being a common input signal, and providing power amplification for the second input signal when the second power amplifier is selected; a second matching circuit coupled to the second power amplifier and providing a second output signal (RFout2); and a first plurality of switches (328a, 328b) coupled to inputs of the first and second power amplifiers and a second plurality of switches (344a, 344b) coupled to outputs of the first and second matching circuits, wherein the apparatus supports a plurality of modes of operation, each mode corresponding to a particular radio technology, and each power amplifier supporting at least two modes of operation; and the first and second pluralities of switches are configured to allow zero, one or both of the first and second power amplifiers to be selected to perform power amplification for the common input signal in each supported mode.
Tyre comprising a directional tread, said tread comprising two edges and a centre, this tread comprising a plurality of blocks of height H that are separated by grooves of width W, each block extending continuously along an overall curvature C from one of the edges towards the centre of said tread, forming a block central end, each block having a width WB and a length LB, this width increasing from the block central end in the direction of the edge, all or some of the blocks of the tread comprising a median sipe of length S, said median sipe extending from the block central end along a curvature C' substantially identical to the curvature C of the block, characterized in that each block comprises a central zone extending generally at an angle β1 such that 35°≤β1≤65° with respect to a transverse direction, an edge zone extending generally at an angle β3 such that 0° ≤ β3 ≤ 10° with respect to the transverse direction, and an intermediate zone between the central zone and the edge zone, and in that, for two adjacent blocks, the width W of a groove separating these two blocks in their central zone is determined such that H*0.6≤ W ≤ H*0.8.
A modular support system for transporting a rotor blade of a wind turbine, comprising - a transport frame which is provided for supporting the rotor blade and is directly connectable to a rotor blade root connection of the rotor blade, wherein the transport frame is designed to be attached to a transport vehicle, in particular a truck, so that the rotor blade mounted to the transport frame is transportable by means of the transport vehicle, and - a frame rack designed for transporting the rotor blade on a transport vessel, wherein the transport frame is receivable in the frame rack so that the rotor blade mounted on the transport frame is transportable by means of the transport vessel, wherein the transport frame comprises an upper horizontal portion having mounting means for connecting to an upper half of the rotor blade root connection, and a lower horizontal portion having mounting means for connecting to a lower half of the rotor blade root connection, the mounting means being designed to be connected to the rotor blade root connection only in a partial area of the respective half (144, 146), and wherein the mounting means of the upper and lower horizontal portions (138, 140) are designed in a comb-like manner and are opened upwardly in proper use so that transport bolts or blade bolts arranged at the rotor blade root connection can be received. - a transport frame which is provided for supporting the rotor blade and is directly connectable to a rotor blade root connection of the rotor blade, wherein the transport frame is designed to be attached to a transport vehicle, in particular a truck, so that the rotor blade mounted to the transport frame is transportable by means of the transport vehicle, and - a frame rack designed for transporting the rotor blade on a transport vessel, wherein the transport frame is receivable in the frame rack so that the rotor blade mounted on the transport frame is transportable by means of the transport vessel,
An adaptive cruise control system for a host motor vehicle having regenerative braking means and non-regenerative braking means, the system being operable to control a powertrain and the braking means of the host vehicle to maintain the vehicle at a target distance behind the followed vehicle, the target distance being substantially equal to a second distance that is greater than a first, non-zero, distance; and employ substantially only the regenerative braking means and not the non-regenerative braking means to slow the host vehicle when the host vehicle is greater than the first distance behind the followed vehicle and the ACC system determines that braking is required to maintain the vehicle at the target distance; and wherein the system is configured to determine the first distance by reference at least in part to an input provided by a user.
A method of wireless communication at a first node, comprising: determining a data frame based on synchronization information, wherein the data frame has a signaling block and a plurality of data slots, wherein the signaling block is prior to the plurality of data slots, wherein the signaling block includes M1 prioritized element periods and M2 contention element periods, wherein the plurality of data slots includes M1 prioritized slots and M2 contention slots, M1 and M2 each being an integer, wherein the M1 prioritized element periods are allocated for priority based traffic, wherein the M2 contention element periods are allocated for contention based traffic, wherein the M1 prioritized slots are allocated for priority based traffic, and wherein the M2 contention slots are allocated for contention based traffic, wherein each prioritized element period corresponds to one prioritized slot and wherein each contention element period corresponds to one contention slot; communicating reservation messages with a second node in the signaling block of the data frame to reserve a first data slot of the plurality of data slots of the data frame during which to transmit or to receive a first packet; and transmitting the first packet to the second node or receiving the first packet from the second node during the first data slot of the data frame; wherein the communicating with the second node is performed in an element period corresponding to the first data slot. determining a data frame based on synchronization information, wherein the data frame has a signaling block and a plurality of data slots, wherein the signaling block is prior to the plurality of data slots, wherein the signaling block includes M1 prioritized element periods and M2 contention element periods, wherein the plurality of data slots includes M1 prioritized slots and M2 contention slots, M1 and M2 each being an integer, wherein the M1 prioritized element periods are allocated for priority based traffic, wherein the M2 contention element periods are allocated for contention based traffic, wherein the M1 prioritized slots are allocated for priority based traffic, and wherein the M2 contention slots are allocated for contention based traffic, wherein each prioritized element period corresponds to one prioritized slot and wherein each contention element period corresponds to one contention slot; communicating reservation messages with a second node in the signaling block of the data frame to reserve a first data slot of the plurality of data slots of the data frame during which to transmit or to receive a first packet; and transmitting the first packet to the second node or receiving the first packet from the second node during the first data slot of the data frame; wherein the communicating with the second node is performed in an element period corresponding to the first data slot.
An infant playpen comprising: a plurality of upright legs (110A, 110B), an enclosure arranged between the upright legs (110A, 110B), and a first and a second upper side rail assembly (112A, 112B, 212A, 212B, 214A, 214B) supported by the upright legs (110A, 110B), characterized in that: each of the first and second upper side rail assemblies (112A, 112B, 212A, 212B, 214A, 214B) includes at least one elongated segment (126, 128, 136, 138, 226, 236, 242, 244) that has an outer surface and a plurality of positioning regions are defined on the outer surfaces of the elongated segments (126, 128, 136, 138, 226, 236, 242, 244), each of the positioning regions being defined as a distinctive geometrical shape formed integrally with the corresponding segment (126, 128, 136, 138, 226, 236, 242, 244), each of the positioning regions being configured to locate a connection of a removable accessory (150, 202, 204) on the infant playpen. a plurality of upright legs (110A, 110B), an enclosure arranged between the upright legs (110A, 110B), and a first and a second upper side rail assembly (112A, 112B, 212A, 212B, 214A, 214B) supported by the upright legs (110A, 110B), characterized in that: each of the first and second upper side rail assemblies (112A, 112B, 212A, 212B, 214A, 214B) includes at least one elongated segment (126, 128, 136, 138, 226, 236, 242, 244) that has an outer surface and a plurality of positioning regions are defined on the outer surfaces of the elongated segments (126, 128, 136, 138, 226, 236, 242, 244), each of the positioning regions being defined as a distinctive geometrical shape formed integrally with the corresponding segment (126, 128, 136, 138, 226, 236, 242, 244), each of the positioning regions being configured to locate a connection of a removable accessory (150, 202, 204) on the infant playpen.
A clock device, comprising: an internal clock which is configured to keep the time; a time information acquisition unit which is configured to acquire time information representing present time from an external device at preset time intervals; a time correction unit which is configured to correct the time kept by the internal clock based on the time information; an error calculation unit which is configured to calculate an error of the time kept by the internal clock based on the present time represented by the time information; and a setting change unit which is configured to change the set value of the time interval for the acquisition of the time information by the time information acquisition unit based on the error calculated by the error calculation unit, the device from which the time information acquisition unit is configured to acquire time information is a device external to the clock device, and characterised in that wherein the setting change unit is configured to multiply the currently set value by a factor m so as to update the set value of the time interval when the error is smaller than a first threshold value, and the setting change unit is configured to multiply the currently set value by a factor n so as to update the set value of the time interval when the error is larger than a second threshold value, the second threshold value being larger than the first threshold value, and wherein the multiplying factors m and n are positive values satisfying conditions m > 1, n < 1 and m·n ≠1. an internal clock which is configured to keep the time; a time information acquisition unit which is configured to acquire time information representing present time from an external device at preset time intervals; a time correction unit which is configured to correct the time kept by the internal clock based on the time information; an error calculation unit which is configured to calculate an error of the time kept by the internal clock based on the present time represented by the time information; and a setting change unit which is configured to change the set value of the time interval for the acquisition of the time information by the time information acquisition unit based on the error calculated by the error calculation unit, the device from which the time information acquisition unit is configured to acquire time information is a device external to the clock device, and characterised in that wherein the setting change unit is configured to multiply the currently set value by a factor m so as to update the set value of the time interval when the error is smaller than a first threshold value, and the setting change unit is configured to multiply the currently set value by a factor n so as to update the set value of the time interval when the error is larger than a second threshold value, the second threshold value being larger than the first threshold value, and wherein the multiplying factors m and n are positive values satisfying conditions m > 1, n < 1 and m·n ≠1.
A hubless drive module including a rim with an inner driving-guiding race and a tyre on the outer side of the rim, installed rotatably on a main bearing panel and a drive motor with a power transmission system transmitting power onto the driving-guiding race and a control module, wherein the hubless drive module includes a platform level adjustment mechanism installed rotatably inside the rim and connected with the main bearing panel, wherein the platform level adjustment mechanism includes a top driven module and a bottom driven module connected using at least one guide, a screw unit located between the top driven module and the bottom driven module, provided with a cushioned mechanism for connecting with a platform, a motor of the platform level adjustment mechanism and a threaded bar driven into rotation by the motor of the platform level adjustment mechanism, wherein the cushioned mechanism for connecting with the platform includes a platform fixture, a base and a shock absorbing element connecting the platform fixture and the base, and the platform fixture and the base may move along the guide and the base is connected with the threaded bar using a corresponding inner thread, ensuring base movement occurring together with rotation of the threaded bar, to execute the platform level adjustment.
Method for positioning an anatomy for imaging, wherein the positioning comprises positioning the anatomy for tomographic imaging by a tomographic imaging apparatus, which tomographic imaging comprises i) a first imaging of first partial volume of the anatomy while the anatomy is positioned at an imaging station of the tomographic imaging apparatus and ii) after that a second imaging of a second partial volume of the anatomy by said tomographic imaging apparatus while the anatomy is positioned at the imaging station of the tomographic imaging apparatus, wherein in connection with the tomographic imaging of the first partial volume of the anatomy, also a photograph or a still video image of the anatomy positioned at the imaging station is taken by a camera arranged in connection with the imaging station so as to generate a first image of the anatomy positioned for tomographic imaging and wherein, for positioning the anatomy for imaging the second partial volume, on a display is presented, one upon another i) a real time image of the imaging station and ii) said first image, said first image being presented as moved into a new position in relation to the imaging station so as to enable observing, from the display, the positioning of the anatomy at the imaging station to meet the first partial volume in the first image, which is now being presented on the display as moved into the new position.
A method for transforming a biomass into at least one biochar, comprising the following steps: (a) a ground and dried biomass is available, said biomass containing at least 30% of a lignocellulosic biomass, by mass relative to the dry mass of the ground and dried biomass, said biomass being in the form of particles with homogeneous dimensions and having a moisture content close to 0; (b) this biomass is progressively heated to a temperature higher than 140°C and lower than 350°C, in a gas stream devoid of oxygen, under a pressure comprised between 1 and 40 bar; (c) the reaction is allowed to proceed while maintaining the temperature in the range of 300-700°C and the pressure in the range of 1-40 bar, (d) the biomass resulting from (c) is cooled to a temperature of at most 100°C, in a gas stream devoid of oxygen, and (e) the biochar is recovered. (a) a ground and dried biomass is available, said biomass containing at least 30% of a lignocellulosic biomass, by mass relative to the dry mass of the ground and dried biomass, said biomass being in the form of particles with homogeneous dimensions and having a moisture content close to 0; (b) this biomass is progressively heated to a temperature higher than 140°C and lower than 350°C, in a gas stream devoid of oxygen, under a pressure comprised between 1 and 40 bar; (c) the reaction is allowed to proceed while maintaining the temperature in the range of 300-700°C and the pressure in the range of 1-40 bar, (d) the biomass resulting from (c) is cooled to a temperature of at most 100°C, in a gas stream devoid of oxygen, and (e) the biochar is recovered.
A device for determining a radial orientation of a lead, wherein the lead comprises at least one set of radially segmented electrodes (E2; E3; E4; E5; E6; E7) on a distal end of the lead, and at least two contacts on a proximal end of the lead, each electrode (E2; E3; E4; E5; E6; E7) in the set of radially segmented electrodes (E2; E3; E4; E5; E6; E7) being coupled to one of the contacts on the proximal end of the lead, characterised in that the device comprises: a radially directional ruler (120; 120') comprising a distal contact and at least two proximal contacts; and an indicator for indicating which one of the electrodes in the set of radially segmented electrodes (E2; E3; E4; E5; E6; E7) is in contact with the radially directional ruler (120; 120'), wherein the radially directional ruler is configured for contacting the lead such that the ruler distal contact is coupled to one of the electrodes in the set of radially segmented electrodes, and the ruler proximal contacts are coupled to the lead proximal contacts, thereby forming a closed circuit between the one of the electrodes coupled to the ruler distal contact and the lead proximal contact that corresponds to the one of the electrodes, and wherein the indicator is configured for indicating which one of the lead proximal contacts is in the closed circuit. a radially directional ruler (120; 120') comprising a distal contact and at least two proximal contacts; and an indicator for indicating which one of the electrodes in the set of radially segmented electrodes (E2; E3; E4; E5; E6; E7) is in contact with the radially directional ruler (120; 120'), wherein the radially directional ruler is configured for contacting the lead such that the ruler distal contact is coupled to one of the electrodes in the set of radially segmented electrodes, and the ruler proximal contacts are coupled to the lead proximal contacts, thereby forming a closed circuit between the one of the electrodes coupled to the ruler distal contact and the lead proximal contact that corresponds to the one of the electrodes, and wherein the indicator is configured for indicating which one of the lead proximal contacts is in the closed circuit.
A heat source machine including: a compressor for compressing a refrigerant; a condenser for condensing the compressed refrigerant using a heat source medium; and an evaporator for evaporating the condensed refrigerant and carrying out heat exchange between the refrigerant and the heat transfer medium; further comprising: an estimation apparatus of heat transfer medium flow rate that comprises: a storing means configured to store an aerodynamic characteristic map preliminarily prepared and indicating a rotating stall line causing a rotating stall and a plurality of machine Mach number lines showing a sonic velocity in the refrigerant sucked in by the compressor on a map displaying a first parameter (θ) reflecting a suction volume of the compressor and a second parameter (Ω) reflecting a head of the compressor; a first parameter computation means configured to compute the second parameter (Ω) and derive the first parameter (θ) identified by the second parameter (θ) and the machine Mach number lines from the aerodynamic characteristic map; and characterized by further comprising a heat transfer medium flow rate computation means configured to compute an amount of heat exchanged between the refrigerant and the heat transfer medium in the evaporator based on the suction volume of the compressor according to the first parameter derived by the first parameter computation means, and compute a flow rate of the heat transfer medium based on the amount of the heat. a storing means configured to store an aerodynamic characteristic map preliminarily prepared and indicating a rotating stall line causing a rotating stall and a plurality of machine Mach number lines showing a sonic velocity in the refrigerant sucked in by the compressor on a map displaying a first parameter (θ) reflecting a suction volume of the compressor and a second parameter (Ω) reflecting a head of the compressor; a first parameter computation means configured to compute the second parameter (Ω) and derive the first parameter (θ) identified by the second parameter (θ) and the machine Mach number lines from the aerodynamic characteristic map; and characterized by further comprising a heat transfer medium flow rate computation means configured to compute an amount of heat exchanged between the refrigerant and the heat transfer medium in the evaporator based on the suction volume of the compressor according to the first parameter derived by the first parameter computation means, and compute a flow rate of the heat transfer medium based on the amount of the heat.