mhurhangee/ep-ind-claims huggingface dataset:
A modular barbecue system comprising a heating compartment having a bottom wall and a peripheral wall (40, 42, 44a, 44b) extending upwardly from the bottom wall, said peripheral wall (40, 42, 44a, 44b) comprising a lower end (48, 60, 66) adjacent to the bottom wall and an upper end (50, 62, 68), said bottom wall and peripheral walls (40, 42, 44a, 44b) defining a cavity, and a heat source (38a-38d) provided in said cavity of said heating compartment; characterized in that the modular barbecue system further comprises: a plurality of add-on components (100, 200, 300, 350, 400, 500, 600, 700, 800, 900) selected from a group consisting of a large basin, a flat basin (300, 400), a maple sap boiling kit (100, 200), a double boiler kit (100, 500), a lid, a strainer (400, 900), a water heating kit (100, 800), a charcoal conversion kit, a smoker conversion kit (100, 300, 500, 600, 700), a steam cooking kit (100, 400, 350) and a boiler kit (100, 900), said add-on components being adapted to be combined with each other and receivable in said cavity of said heating compartment; a plurality of steps (54, 56, 58) provided in said cavity of said heating compartment, each of said plurality of steps (54, 56, 58) being configured to support said add-on components (100, 200, 300, 350, 400, 500, 600, 700, 800, 900) in said cavity, said plurality of steps (54, 56, 58) allowing the positioning of said add on components (100, 200, 300, 350, 400, 500, 600, 700, 800, 900) at a corresponding plurality of distances relative to said heat source (38a-38d). a plurality of add-on components (100, 200, 300, 350, 400, 500, 600, 700, 800, 900) selected from a group consisting of a large basin, a flat basin (300, 400), a maple sap boiling kit (100, 200), a double boiler kit (100, 500), a lid, a strainer (400, 900), a water heating kit (100, 800), a charcoal conversion kit, a smoker conversion kit (100, 300, 500, 600, 700), a steam cooking kit (100, 400, 350) and a boiler kit (100, 900), said add-on components being adapted to be combined with each other and receivable in said cavity of said heating compartment; a plurality of steps (54, 56, 58) provided in said cavity of said heating compartment, each of said plurality of steps (54, 56, 58) being configured to support said add-on components (100, 200, 300, 350, 400, 500, 600, 700, 800, 900) in said cavity, said plurality of steps (54, 56, 58) allowing the positioning of said add on components (100, 200, 300, 350, 400, 500, 600, 700, 800, 900) at a corresponding plurality of distances relative to said heat source (38a-38d).
Valvetrain assembly comprising: - a number of valves (2, 3) each having a valve stem (4, 5); - at least one main camshaft with a number of main cams (21, 22), at least one main cam corresponding to each valve; - a number of main rocker arms (6, 7), each main rocker arm corresponding to a valve and having a valve stem actuation portion, a pivot axis parallel to the main cam shaft and a main cam follower (8, 9, 10, 11) for following the corresponding main cam, wherein the valve stem actuation portion, the pivot axis and the main cam follower (8, 9, 10, 11) are arranged along the length of the main rocker arm (6, 7) and at a distance from each other; - at least one auxiliary cam (23, 24) arranged on the main camshaft; - at least one auxiliary cam follower for each auxiliary cam (23, 24) and for following said auxiliary cam, wherein each auxiliary cam follower is movable arranged on one of the main rocker arms (6, 7) between a first and a second position, and wherein the auxiliary cam follower is arranged on a free end of an auxiliary rocker arm, which is pivotable arranged with the opposite end to the main rocker arm (6, 7); - a latch (12, 13) arranged on the respective main rocker arm (6, 7) for locking the auxiliary cam follower in the first position; characterized by - at least one auxiliary camshaft with a selector cam (14, 15) for each latch (12, 13) to control said latch - at least a first and a second valve (2, 3) both corresponding to a single cylinder of a combustion engine, wherein a first selector cam for the first valve has a profile different from the profile of the second selector cam for the second valve. - a number of valves (2, 3) each having a valve stem (4, 5); - at least one main camshaft with a number of main cams (21, 22), at least one main cam corresponding to each valve; - a number of main rocker arms (6, 7), each main rocker arm corresponding to a valve and having a valve stem actuation portion, a pivot axis parallel to the main cam shaft and a main cam follower (8, 9, 10, 11) for following the corresponding main cam, wherein the valve stem actuation portion, the pivot axis and the main cam follower (8, 9, 10, 11) are arranged along the length of the main rocker arm (6, 7) and at a distance from each other; - at least one auxiliary cam (23, 24) arranged on the main camshaft; - at least one auxiliary cam follower for each auxiliary cam (23, 24) and for following said auxiliary cam, wherein each auxiliary cam follower is movable arranged on one of the main rocker arms (6, 7) between a first and a second position, and wherein the auxiliary cam follower is arranged on a free end of an auxiliary rocker arm, which is pivotable arranged with the opposite end to the main rocker arm (6, 7); - a latch (12, 13) arranged on the respective main rocker arm (6, 7) for locking the auxiliary cam follower in the first position; - at least one auxiliary camshaft with a selector cam (14, 15) for each latch (12, 13) to control said latch - at least a first and a second valve (2, 3) both corresponding to a single cylinder of a combustion engine,
A peristaltic pumphead (2, 202) comprising a pumphead housing (4, 204) accommodating a pumping tube (52, 276), an end of the tube (52, 276) being provided with an end fitting (70, 72, 282) having a through passage (74, 76, 294) and characterised in that the end fitting (70, 72, 202) further comprises: an abutment shoulder (78, 80, 302) and a threaded shank (82, 84, 298) extending from the abutment shoulder (78, 80, 302) into the tube (52, 276), the tube end abutting the abutment shoulder and being accommodated in an opening (62, 64) in the pumphead housing (4, 204), the abutment shoulder abutting the housing at the opening, and the end fitting (70, 72, 282) being engaged by a retaining element to retain the abutment shoulder (78, 80, 302) against the housing (4, 204); and wherein the threaded shank is configured to be rotated so as to draw the tube (52, 276) along the threaded shank (82, 84, 298) towards the abutment shoulder (78, 80, 302) and the opening (62, 64) in the pumphead housing (4, 204).
An overhead transport vehicle including a body unit capable of traveling along a rail, and an elevator comprising a gripper configured to grip an article and to ascend and descend with respect to the body unit by a plurality of suspension members, the overhead transport vehicle comprising: the elevator including a base to which the gripper is attached, a plurality of suspension attaching portions (40, 50) to which the plurality of suspension members are each attached, the plurality of suspension attaching portions (40, 50) each configured to support the base so as to be vertically movable from below in a vertical direction via a vibration isolator (40A, 50A), characterised in that the elevator further comprises a lock mechanism configured to fix a relative positional relation between each of the plurality of suspension attaching portions (40, 50) and the base; and in that the overhead transport vehicle further comprises a controller configured to control the lock mechanism so as to be in a locked state in order to fix the relative positional relation at least partially during an elevating operation of the elevator, and also configured to control the lock mechanism so as to be in an unlocked state by releasing the locked state at least partially during a traveling operation of the body unit. the elevator including a base to which the gripper is attached, a plurality of suspension attaching portions (40, 50) to which the plurality of suspension members are each attached, the plurality of suspension attaching portions (40, 50) each configured to support the base so as to be vertically movable from below in a vertical direction via a vibration isolator (40A, 50A), characterised in that the elevator further comprises a lock mechanism configured to fix a relative positional relation between each of the plurality of suspension attaching portions (40, 50) and the base; and in that the overhead transport vehicle further comprises a controller configured to control the lock mechanism so as to be in a locked state in order to fix the relative positional relation at least partially during an elevating operation of the elevator, and also configured to control the lock mechanism so as to be in an unlocked state by releasing the locked state at least partially during a traveling operation of the body unit.
A power injector comprising: a syringe plunger driver comprising a motorized drive source; a syringe comprising a syringe plunger, wherein said syringe plunger driver interacts with said syringe plunger to move said syringe plunger within said syringe in at least in a first direction; power injector control logic comprising an injection protocol providing an exponentially decaying flow rate injection that in turn comprises a flow rate decay constant; and data storage accessible by said power injector control logic and comprising a plurality of data entries, wherein each said data entry comprises a flow rate decay constant value associated with an imaging device identifier, such that a particular model of imaging device that is to be utilized with the power injector can be associated with a corresponding flow rate decay constant, wherein the power injector control logic is arranged to: receive user-entered information representing an imaging device identifier; identify the flow rate decay constant value associated with the imaging device identifier from the plurality of data entries stored in the data storage; and execute the injection protocol to carry out an exponentially decaying flow rate injection comprising the selected flow rate decay constant value. a syringe plunger driver comprising a motorized drive source; a syringe comprising a syringe plunger, wherein said syringe plunger driver interacts with said syringe plunger to move said syringe plunger within said syringe in at least in a first direction; power injector control logic comprising an injection protocol providing an exponentially decaying flow rate injection that in turn comprises a flow rate decay constant; and data storage accessible by said power injector control logic and comprising a plurality of data entries, wherein each said data entry comprises a flow rate decay constant value associated with an imaging device identifier, such that a particular model of imaging device that is to be utilized with the power injector can be associated with a corresponding flow rate decay constant, wherein the power injector control logic is arranged to: receive user-entered information representing an imaging device identifier; identify the flow rate decay constant value associated with the imaging device identifier from the plurality of data entries stored in the data storage; and execute the injection protocol to carry out an exponentially decaying flow rate injection comprising the selected flow rate decay constant value. receive user-entered information representing an imaging device identifier; identify the flow rate decay constant value associated with the imaging device identifier from the plurality of data entries stored in the data storage; and execute the injection protocol to carry out an exponentially decaying flow rate injection comprising the selected flow rate decay constant value.
Gear wheel, which is mounted on a rotation axis and on the periphery of which are arranged preferably a multiplicity of teeth for transmitting a torque to a counter-element that cooperates with the gear wheel, wherein a friction region between a tooth and the counter-element is provided with a lubricant on a tooth flank surface, wherein on the tooth flank surface there is formed at least one longitudinal rill for supplying the lubricant in the direction of the friction region, characterized in that the at least one longitudinal rill continues as far as the friction face, the friction face is arranged in the central region of the tooth and is designed without rills, thus permitting high hydrodynamic carrying capacity of a tooth flank of the tooth, and at least one longitudinal rill extends from each of the two side faces (13, 14) of the gear wheel, in that the longitudinal rills are of approximately equal length, and in that the length of the longitudinal rills extending from each of the two side faces (13, 14) together amounts to between 30% and 70% of the breadth of the gear wheel.
A multi-electrode electrogas arc welding method, comprising: disposing ends of thick steel plates to be welded, having a plate thickness of 80 to 300 mm so as to face each other to form a groove between the ends of the steel plates, a root opening RO of the groove being in a range of from 0 to 16 mm, and where, when the root opening RO is in a range of 0 ≤ RO < 1 mm, a root face RF satisfies a relationship represented by a formula 1 below; when the root opening RO is in a range of 1 mm ≤ RO < 10 mm, the root face RF satisfies a relationship represented by a formula 2 below; and when the root opening RO is in a range of 10 mm ≤ RO ≤ 16 mm, the root face RF satisfies a relationship represented by a formula 3 below: RF ≤ 7.8 RO + 4.0 mm RF ≤ 4.8 RO + 7.0 mm RF ≤ 55 mm in the above formulae 1, 2, and 3, RF represents root face and RO represents root opening; disposing one or two or more electrogas arc welding electrodes in the groove on each of front and back face sides of the steel plates; and simultaneously welding from downward to upward in a vertical direction, wherein a moving speed of each of the electrogas arc welding electrodes is controlled so that the each electrogas arc welding electrode moves in synchronization with a molten metal surface level of a molten weld metal deposited in the groove. disposing ends of thick steel plates to be welded, having a plate thickness of 80 to 300 mm so as to face each other to form a groove between the ends of the steel plates, a root opening RO of the groove being in a range of from 0 to 16 mm, and where, when the root opening RO is in a range of 0 ≤ RO < 1 mm, a root face RF satisfies a relationship represented by a formula 1 below; when the root opening RO is in a range of 1 mm ≤ RO < 10 mm, the root face RF satisfies a relationship represented by a formula 2 below; and when the root opening RO is in a range of 10 mm ≤ RO ≤ 16 mm, the root face RF satisfies a relationship represented by a formula 3 below: RF ≤ 7.8 RO + 4.0 mm RF ≤ 4.8 RO + 7.0 mm RF ≤ 55 mm in the above formulae 1, 2, and 3, RF represents root face and RO represents root opening; disposing one or two or more electrogas arc welding electrodes in the groove on each of front and back face sides of the steel plates; and simultaneously welding from downward to upward in a vertical direction, wherein a moving speed of each of the electrogas arc welding electrodes is controlled so that the each electrogas arc welding electrode moves in synchronization with a molten metal surface level of a molten weld metal deposited in the groove.
All-optical regeneration system for regeneration of optical wavelength division multiplexed WDM data signals in an optical WDM communication system, the system comprising: - a WDM-to-Optical time domain multiplexing OTDM, WDM-to-OTDM, converter, capable of converting an input WDM data signal comprising multiple wavelength channels into an input OTDM data signal comprising multiple time multiplexed time channels in a single wavelength channel, characterised by the system further comprising - an all-optical OTDM regenerator unit being configured for regenerating the input OTDM data signal into an output OTDM data signal, and - an OTDM-to-WDM converter for converting the output OTDM data signal to an output WDM data signal, wherein an input of the all-optical regenerator unit is in optical communication with an output of the WDM-to-OTDM converter, and an output of the all-optical regenerator unit is in optical communication with an input of the OTDM-to-WDM converter. - a WDM-to-Optical time domain multiplexing OTDM, WDM-to-OTDM, converter, capable of converting an input WDM data signal comprising multiple wavelength channels into an input OTDM data signal comprising multiple time multiplexed time channels in a single wavelength channel, characterised by the system further comprising - an all-optical OTDM regenerator unit being configured for regenerating the input OTDM data signal into an output OTDM data signal, and - an OTDM-to-WDM converter for converting the output OTDM data signal to an output WDM data signal, wherein
A method of supporting a network locating a target node by a Mobility Management Entity, MME, the method comprising: receiving a switching requirement message from a source evolved Node B, eNB, the switching requirement message including a target identifier, ID, and a type of the target eNB; obtaining the closed subscription group identifier, CSG ID, of the target eNB from the target cell global identifier, CGI, included in the packets transparently transferred from the source eNB to the target eNB included in the switching requirement message if the type of the target eNB indicates that the target eNB is an home eNB, HNB, and the target ID is the HNB gateway ID, controlling the access of a User Equipment, UE, to the HNB by determining if the obtained CSG ID is in a CSG white list of the UE. receiving a switching requirement message from a source evolved Node B, eNB, the switching requirement message including a target identifier, ID, and a type of the target eNB; obtaining the closed subscription group identifier, CSG ID, of the target eNB from the target cell global identifier, CGI, included in the packets transparently transferred from the source eNB to the target eNB included in the switching requirement message if the type of the target eNB indicates that the target eNB is an home eNB, HNB, and the target ID is the HNB gateway ID, controlling the access of a User Equipment, UE, to the HNB by determining if the obtained CSG ID is in a CSG white list of the UE.
A computer-readable medium comprising codes causing user equipment to perform: obtaining multiple Transport Blocks, TBs, within one Transmission Time Interval, TTI, wherein the TBs are allocated by a base station; selecting a TB compliant with a condition of transmitting Buffer Status Reports, BSRs, among the multiple TBs; wherein the condition comprises at least one of: a first condition: padding bits of a single TB are capable of accommodating BSRs of all LCGs and CE sub-headers of the BSRs; and a second condition: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs; bearing BSRs of Logical Channel Groups, LCGs, and Control Element, CE, sub-headers of the BSRs onto the selected TB; and sending the selected TB to the base station. obtaining multiple Transport Blocks, TBs, within one Transmission Time Interval, TTI, wherein the TBs are allocated by a base station; selecting a TB compliant with a condition of transmitting Buffer Status Reports, BSRs, among the multiple TBs; wherein the condition comprises at least one of: a first condition: padding bits of a single TB are capable of accommodating BSRs of all LCGs and CE sub-headers of the BSRs; and a second condition: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs; a first condition: padding bits of a single TB are capable of accommodating BSRs of all LCGs and CE sub-headers of the BSRs; and a second condition: padding bits of a single TB are capable of accommodating BSRs of one or more LCGs and CE sub-headers of the BSRs, but are incapable of accommodating the BSRs of all LCGs and the CE sub-headers of the BSRs; bearing BSRs of Logical Channel Groups, LCGs, and Control Element, CE, sub-headers of the BSRs onto the selected TB; and sending the selected TB to the base station.
A method for transmitting an emergency call by a terminal, the method comprising: receiving, by the terminal from a server, a first message including information on a media type supported by an internet protocol, IP, multimedia subsystem, IMS; identifying whether non-voice media type is supported by the IMS based on the first message; and transmitting, to a public safety answering point, PSAP, a second message including information on a media type supported by the terminal based on the first message, if the non-voice media type is supported by the IMS based on the first message. receiving, by the terminal from a server, a first message including information on a media type supported by an internet protocol, IP, multimedia subsystem, IMS; identifying whether non-voice media type is supported by the IMS based on the first message; and transmitting, to a public safety answering point, PSAP, a second message including information on a media type supported by the terminal based on the first message, if the non-voice media type is supported by the IMS based on the first message.
A solution for forming an insulation coating of grain-oriented electrical steel sheet, the solution comprising an aqueous solution prepared by mixing a phosphate solution and colloidal silica, wherein silica particles of the colloidal silica are surface-modified by aluminate such tha1 Al-OH - is arranged at the surface of the silica particles or a solution of the colloidal silica includes aluminate, and the aqueous solution is free of chromium. wherein silica particles of the colloidal silica are surface-modified by aluminate such tha1 Al-OH - is arranged at the surface of the silica particles or a solution of the colloidal silica includes aluminate, and the aqueous solution is free of chromium.
Mooring assembly for a vessel, comprising a moonpool defined in the vessel, a turret rotatably mounted within the moonpool by means of an upper main bearing for transmitting horizontal and vertical loads between the vessel and turret and by means of a lower secondary bearing for substantially transmitting horizontal loads between the vessel and the turret, and mooring lines attached to the lower region of the turret, wherein the turret at its lower region comprises a number of circumferentially spaced members each extending substantially vertically between an upper end attached to the turret and a lower free end, which members have a resistance against bending that in a circumferential direction is greater than in a radial direction, wherein the mooring lines are attached to said members near said lower free ends and wherein the lower secondary bearing is defined by outwardly facing bearing members attached to said members and an inwardly facing bearing ring attached to the moonpool, characterized in that the members are torsion box like torsion members wherein in a situation in which a torsion member is not loaded horizontally by a respective mooring line its bearing member does not engage the bearing ring.