mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a base station, BS, in a wireless communication system, the method comprising: transmitting a message comprising information regarding a plurality of ranging codes; receiving a ranging code selected among the plurality of ranging codes from at least one mobile station, MS; determining whether a soft combining in accordance with Hybrid Automatic Repeat reQuest, HARQ, is supported by the at least one MS based on a type of the ranging code, wherein the type of the ranging code comprises at least one of ranging codes for soft combining and ranging codes not for soft combining in accordance with Hybrid Automatic Repeat reQuest, HARQ; in response to the determination that the soft combining is supported by the at least one MS, transmitting a first resource allocation message to the at least one MS, the first resource allocation message comprising resource allocation information for the at least one MS to transmit a ranging signal and upon no reception of the ranging signal from the at least one MS, transmitting a second resource allocation message to the at least one MS, the second resource allocation message for requesting a retransmission of the ranging signal, wherein the first resource allocation message has same ranging attributes with the second resource allocation message, wherein the ranging attributes comprise a frame number index, the at least one ranging code, a ranging symbol, and a ranging subchannel, and wherein the ranging codes for soft combining comprise initial ranging codes, handover ranging codes and bandwidth request ranging codes. transmitting a message comprising information regarding a plurality of ranging codes; receiving a ranging code selected among the plurality of ranging codes from at least one mobile station, MS; determining whether a soft combining in accordance with Hybrid Automatic Repeat reQuest, HARQ, is supported by the at least one MS based on a type of the ranging code, wherein the type of the ranging code comprises at least one of ranging codes for soft combining and ranging codes not for soft combining in accordance with Hybrid Automatic Repeat reQuest, HARQ; in response to the determination that the soft combining is supported by the at least one MS, transmitting a first resource allocation message to the at least one MS, the first resource allocation message comprising resource allocation information for the at least one MS to transmit a ranging signal and upon no reception of the ranging signal from the at least one MS, transmitting a second resource allocation message to the at least one MS, the second resource allocation message for requesting a retransmission of the ranging signal, wherein the first resource allocation message has same ranging attributes with the second resource allocation message, wherein the ranging attributes comprise a frame number index, the at least one ranging code, a ranging symbol, and a ranging subchannel, and wherein the ranging codes for soft combining comprise initial ranging codes, handover ranging codes and bandwidth request ranging codes.
A method for reducing vibrations and loads in one or more rotor blades on a rotor hub of a wind turbine when the rotor hub is in a locked or idling condition, the method comprising: attaching a mass damper at a fixed location on one or more of the rotor blades; maintaining the mass damper on the rotor blades during the locked or idling condition of the rotor hub; wherein the mass damper includes a movable mass component responsive to changes in vibrations or oscillations induced in the rotor blades during the locked or idling condition of the rotor hub; and removing the mass damper prior to placing the wind turbine into an operational mode. attaching a mass damper at a fixed location on one or more of the rotor blades; maintaining the mass damper on the rotor blades during the locked or idling condition of the rotor hub; wherein the mass damper includes a movable mass component responsive to changes in vibrations or oscillations induced in the rotor blades during the locked or idling condition of the rotor hub; and removing the mass damper prior to placing the wind turbine into an operational mode.
A low-profile igniter assembly adapted for use with an airbag system inflator, comprising an initiator including: an adaptor comprising an opening formed therein; an ignition portion; and a plurality of conductors electrically coupled to the ignition portion and extending in a first direction from the ignition portion to the opening of the adaptor; wherein the igniter assembly further comprises a connector for disposition within the opening of the adaptor, the connector including a plurality of terminals, where each terminal is adapted to couple with a respective conductor of the plurality of conductors of the initiator; characterized in that the opening of the adaptor is shaped to receive the connector slid therein in a second direction transverse to the first direction in which the plurality of conductors extend. an adaptor comprising an opening formed therein; an ignition portion; and a plurality of conductors electrically coupled to the ignition portion and extending in a first direction from the ignition portion to the opening of the adaptor; wherein the igniter assembly further comprises a connector for disposition within the opening of the adaptor, the connector including a plurality of terminals, where each terminal is adapted to couple with a respective conductor of the plurality of conductors of the initiator; characterized in that the opening of the adaptor is shaped to receive the connector slid therein in a second direction transverse to the first direction in which the plurality of conductors extend.
A wellbore ball valve, comprising: a fiber reinforced composite ball valve closure comprising an interior, central through-bore and an annular metallic sealing surface; and a ball carrying assembly having an annular, metallic sealing seat surface adapted to contact and form a metal-to-metal seal with the metallic sealing surface of the ball valve closure when the ball valve closure is closed. a fiber reinforced composite ball valve closure comprising an interior, central through-bore and an annular metallic sealing surface; and a ball carrying assembly having an annular, metallic sealing seat surface adapted to contact and form a metal-to-metal seal with the metallic sealing surface of the ball valve closure when the ball valve closure is closed.
A selective protection circuit, applied to a scenario in which a high-voltage direct current, HVDC power supply is used to supply power, wherein the HVDC power supply supplies power to at least two parallel load branches, and each load branch comprises one voltage pre-regulator circuit; the selective protection circuit comprises a current-limiting module and a control module, wherein the current-limiting module comprises a switch unit, and the switch unit comprises a first end, a second end, and a control end; the first end is connected to a positive electrode of a bus voltage of the HVDC power supply, and the second end is connected to a positive electrode of a power supply of a voltage pre-regulator circuit in a load branch connected to the current-limiting module; or the first end is connected to a negative electrode of a bus voltage of the HVDC power supply, and the second end is connected to a negative electrode of a power supply of a voltage pre-regulator circuit in a load branch connected to the current-limiting module; the control end is connected to the control module; and the control module is configured to output a control signal to the control end when a value of a total current flowing through the switch unit is greater than or equal to a preset threshold, so as to switch off the switch unit, wherein the preset threshold is greater than a maximum value of a normal operating current flowing through the switch unit, wherein the current-limiting module further comprises a unidirectional conduction unit and an inductor, and when the unidirectional conduction unit is on, a current flowing through the unidirectional conduction unit flows in a direction from a positive electrode of the unidirectional conduction unit to a negative electrode of the unidirectional conduction unit; the positive electrode of the unidirectional conduction unit is connected to the negative electrode of the power supply of the voltage pre-regulator circuit in the load branch connected to the current-limiting module; the negative electrode of the unidirectional conduction unit is connected to the positive electrode of the power supply of the voltage pre-regulator circuit in the load branch connected to the current-limiting module; and one end of the inductor is connected to the negative electrode of the unidirectional conduction unit, and the other end is connected to the positive electrode of the power supply of the voltage pre-regulator circuit in the load branch connected to the current-limiting module.
A moist or wet wipe characterised by consisting entirely of woven or non-woven material which is dissolvable and which is coated or impregnated with cleaning substances.
A process for producing butadiene, comprising: a first step of producing butadiene by a vapor-phase catalytic oxidation reaction in the presence of a catalyst by feeding a monoolefin having 4 carbon atoms to a fluidized bed reactor; and a second step of removing a part of the catalyst from the fluidized bed reactor while the vapor-phase catalytic oxidation reaction is proceeding, regenerating the catalyst removed from the fluidized bed reactor, and feeding the regenerated catalyst to the fluidized bed reactor while the vapor-phase catalytic oxidation reaction is proceeding, wherein a ratio of an amount (kg/hr) of the regenerated catalyst fed to an amount (kg/hr) of the monoolefin having 4 carbon atoms fed is 0.3% or more. a first step of producing butadiene by a vapor-phase catalytic oxidation reaction in the presence of a catalyst by feeding a monoolefin having 4 carbon atoms to a fluidized bed reactor; and a second step of removing a part of the catalyst from the fluidized bed reactor while the vapor-phase catalytic oxidation reaction is proceeding, regenerating the catalyst removed from the fluidized bed reactor, and feeding the regenerated catalyst to the fluidized bed reactor while the vapor-phase catalytic oxidation reaction is proceeding, wherein a ratio of an amount (kg/hr) of the regenerated catalyst fed to an amount (kg/hr) of the monoolefin having 4 carbon atoms fed is 0.3% or more.
Device for separating a number of workpleces from a material strip, which has a detaching station to which the material strip can be fed and in which the workpieces can be detached from the material strip by impacting the material strip, the device having a transport device by which a workpiece strip containing the separated workpleces and at least a residual strip (S', S") containing the remaining part of the material strip can be moved In a transport direction, characterized in that the detaching station divides the material strip fed to it in the workpiece strip which contiguously contains the workpieces to be produced, and in the one or the residual strips (S', S"), which contiguously contains or contain the remainder of the material strip generated in the detachment process, and that, downstream of the detaching station of the device In transport direction of the material strip, a separating station is arranged, by which the workpiece strip containing the workpieces and the one or the residual strips (S', S") containing the remainder of the material strip generated in the detachment process of the workpieces can be separated into a first plane defined by the workpiece strip and a second plane spaced from said first plane, that the detaching station comprises a wedge-shaped separating element, by which at least one residual strip (S') can be moved away from the transport direction of the material strip laterally, and that the narrow end of this wedge-shaped separating element is facing towards said detaching station.
A polymerase chain reaction amplification reaction mixture that includes, in addition to at least one nucleic acid strand containing at least one target sequence, at least one primer pair, a DNA polymerase and dNTP's in a PCR reaction buffer, at least one added reagent comprised of at least one pair of complementary oligonucleotides with the capacity to form 50-800 nM concentration of a double-stranded hybrid 6-50 base pairs long with a melting temperature (Tm) of at least 32°C, said double-stranded hybrid having an end that includes interacting, covalently attached label moieties, a bulky, non-planar fluorescent moiety on one strand and on the other strand either a bulky, non-planar fluorescent moiety or a non-bulky, planar moiety, wherein neither strand of said at least one reagent acts as a probe or a primer on a template strand of the target sequence amplified in the reaction.
Process for producing a tungsten oxide powder or a tungsten mixed oxide powder of general formula M x WO 3, wherein M = Na, K, Rb, Li and/or Cs, 0.1 ≤ x ≤ 0.5, comprising the consecutive steps of: a) providing a solution comprising respectively at least one tungsten compound and optionally at least one M-comprising compound in a concentration corresponding to the stoichiometry M x WO 3, b) atomizing the solution, thus forming an aerosol, into a reaction space, c) reacting the aerosol in the reaction space with a hydrogen/oxygen flame for which the expression 1 < O 2,primary /0.5H 2 ≤ 3 applies, wherein the reaction space is configured such that it comprises two reaction zones with two different velocities of the reaction mixture v 1 and v 2 where v 2 = 0.3 - 0.8 v 1 and 0.5 ≤ v 1 ≤ 10 Nm/s, d) separating the solid from vaporous or gaseous substances and e) passing a reducing gas stream over the separated solid at a temperature of 450-700°C. a) providing a solution comprising respectively at least one tungsten compound and optionally at least one M-comprising compound in a concentration corresponding to the stoichiometry M x WO 3, b) atomizing the solution, thus forming an aerosol, into a reaction space, c) reacting the aerosol in the reaction space with a hydrogen/oxygen flame for which the expression 1 < O 2,primary /0.5H 2 ≤ 3 applies, wherein the reaction space is configured such that it comprises two reaction zones with two different velocities of the reaction mixture v 1 and v 2 where v 2 = 0.3 - 0.8 v 1 and 0.5 ≤ v 1 ≤ 10 Nm/s, d) separating the solid from vaporous or gaseous substances and e) passing a reducing gas stream over the separated solid at a temperature of 450-700°C.
An eductor nozzle arrangement for distributing a fluid to be treated between a first fluid chamber (14, 114) and a second fluid chamber (16, 116), said eductor nozzle arrangement comprising: a first eductor nozzle assembly (34, 34a, 134) comprising a first fluid conduit (72, 72a) extending between the first and second fluid chambers (14, 114, 16, 116), wherein the first fluid conduit (72, 72a) comprises a first fluid port (74, 74a) providing communication with the first fluid chamber (14, 114); and a second eductor nozzle assembly (34, 34a, 134) comprising a second fluid conduit (72, 72a) extending between the first and second fluid chambers (14, 114, 16, 116), wherein the second fluid conduit (72, 72a) comprises a second fluid port (74, 74a) providing communication with the first fluid chamber (14, 114); characterized in that the first and second fluid ports (74, 74a) are provided at different heights relative to a base of the first fluid chamber (14, 114) to facilitate operation of the first and second eductor nozzle assemblies (34, 34a, 134) with different head ranges of fluid within said first fluid chamber (14, 114). a first eductor nozzle assembly (34, 34a, 134) comprising a first fluid conduit (72, 72a) extending between the first and second fluid chambers (14, 114, 16, 116), wherein the first fluid conduit (72, 72a) comprises a first fluid port (74, 74a) providing communication with the first fluid chamber (14, 114); and a second eductor nozzle assembly (34, 34a, 134) comprising a second fluid conduit (72, 72a) extending between the first and second fluid chambers (14, 114, 16, 116), wherein the second fluid conduit (72, 72a) comprises a second fluid port (74, 74a) providing communication with the first fluid chamber (14, 114);
A webpage navigation method for a mobile terminal having a touchscreen, the method comprising: displaying a first webpage and a web browser menu on the touchscreen among a plurality of webpages loaded successively in order of user inputs; receiving a first user input made on the touchscreen, wherein the first user input is made by one of a flick gesture and a touch and drag gesture made on the web browser menu; displaying (S1309, S1315) an object pertaining to one of a second webpage that was displayed on the touchscreen right before the first webpage and a third webpage that was displayed on the touchscreen right after the first webpage, in response to receiving the first user input; wherein, displaying the object comprises: displaying the object pertaining to the second webpage when the first user input is one of the flick gesture and the touch and drag gesture with first direction, and displaying the object pertaining to the third webpage when the first user input is one of the flick gesture and the touch and drag gesture with second direction opposite to the first direction; receiving (1311;1317) a second user input for selecting the object pertaining to one of the second and third webpages; and re-displaying (1313; 1319) one of the second and third webpages according to the second user input. displaying a first webpage and a web browser menu on the touchscreen among a plurality of webpages loaded successively in order of user inputs; receiving a first user input made on the touchscreen, wherein the first user input is made by one of a flick gesture and a touch and drag gesture made on the web browser menu; displaying (S1309, S1315) an object pertaining to one of a second webpage that was displayed on the touchscreen right before the first webpage and a third webpage that was displayed on the touchscreen right after the first webpage, in response to receiving the first user input; wherein, displaying the object comprises: displaying the object pertaining to the second webpage when the first user input is one of the flick gesture and the touch and drag gesture with first direction, and displaying the object pertaining to the third webpage when the first user input is one of the flick gesture and the touch and drag gesture with second direction opposite to the first direction; displaying the object pertaining to the second webpage when the first user input is one of the flick gesture and the touch and drag gesture with first direction, and displaying the object pertaining to the third webpage when the first user input is one of the flick gesture and the touch and drag gesture with second direction opposite to the first direction; receiving (1311;1317) a second user input for selecting the object pertaining to one of the second and third webpages; and re-displaying (1313; 1319) one of the second and third webpages according to the second user input.
An ablation device, comprising an elongate body having proximal and distal ends, and an inner lumen extending therethrough, the inner lumen being configured to receive fluid therein and to deliver fluid to the distal end of the elongate body; an ablation electrode that forms a blunt distal end of the elongate body, the ablation electrode being configured to contact tissue without penetrating through the tissue and to heat surrounding tissue; and a heater element disposed within the inner lumen adjacent to the distal end of the elongate body, the heater element being configured to heat fluid flowing through the inner lumen to a temperature greater than 37° C and less than 100° C, wherein the elongate body is configured such that fluid can circulate through the elongate body and is received back at the proximal end thereof without being released into surrounding tissue. an elongate body having proximal and distal ends, and an inner lumen extending therethrough, the inner lumen being configured to receive fluid therein and to deliver fluid to the distal end of the elongate body; an ablation electrode that forms a blunt distal end of the elongate body, the ablation electrode being configured to contact tissue without penetrating through the tissue and to heat surrounding tissue; and a heater element disposed within the inner lumen adjacent to the distal end of the elongate body, the heater element being configured to heat fluid flowing through the inner lumen to a temperature greater than 37° C and less than 100° C, wherein the elongate body is configured such that fluid can circulate through the elongate body and is received back at the proximal end thereof without being released into surrounding tissue.
An apparatus for compensating for such deformation as occur on operation in first and second clamping surfaces intended for a tool in a press, the clamping surfaces being reciprocally moveable towards and away from one another for moving a first and a second part of the tool towards and away from the first and second tool parts (50, 51), respectively, and the first and second tool parts (50, 51) have a first and second abutment surface (54, 55, respectively) for abutment against the first and second clamping surfaces (52, 53, respectively) of the press, and the deformations realize an uneven pressure in at least one contact region between the tool and the clamping surfaces (52, 53), and the apparatus comprising: a power unit configured to be arranged in a contact region between the clamping surface in the press and the abutment surface on the tool, said power unit being configured, on activation, pressing away from the clamping surface located in the contact region at least a part of the abutment surface of the tool, wherein the power unit comprises at least two plates (22, 23) defining between them, an interspace, said plates being enclosed by a frame section extending along the sides of the plates, wherein the frame section is fixedly welded to both the upper and the lower plate (22, 23), characterised in that the upper plate has a through-going hole centrally located in the upper plate for supplying a pressurized fluid to the interspace, whereby said interspace is pressurized, and in that the compression pressure by the power unit on the abutment surface of the tool when the interspace is pressurized declines outwardly from a central area (c) of the tool.
Composting apparatus, which comprises an internal space bounded by the outer rims of the shell elements surrounding the internal space, a base, two flexible intermediate bulk containers and a lid structure, and inside which composting apparatus at least between the outer rims and the compost mass to be formed from compostable waste is thermal insulation, characterized in that the two flexible intermediate bulk containers form composting compartments, separated from each other, are fitted into the internal space of the composting apparatus, the compartments being for the compost masses to be formed from compostable waste (21a, 21b), and in that thermal transfer is arranged between the composting compartments from the warmer compartment to the colder compartment.