mhurhangee/ep-ind-claims huggingface dataset:
A contact trip adjustment assembly for a tool configured to drive a fastener into a workpiece, the contact trip adjustment assembly comprising: a forward trip member adapted to engage the workpiece and including a plurality of threads disposed about a first axis, the forward trip member being axially translatable along the first axis between a preset position and an actuated position; an adjustment pinion rotatably disposed about the first axis and including a first geared portion; an adjustment nut coupled to the adjustment pinion for common rotation about the first axis, the adjustment nut being axially slidable relative to the adjustment pinion and having a plurality of mating threads that are threadably engaged with the threads of the forward trip member; an adjustment knob rotatably disposed about a second axis that is not coincident with the first axis, the adjustment knob including a second geared portion meshingly engaged with the first geared portion; and a spring biasing the forward trip member toward the preset position. a forward trip member adapted to engage the workpiece and including a plurality of threads disposed about a first axis, the forward trip member being axially translatable along the first axis between a preset position and an actuated position; an adjustment pinion rotatably disposed about the first axis and including a first geared portion; an adjustment nut coupled to the adjustment pinion for common rotation about the first axis, the adjustment nut being axially slidable relative to the adjustment pinion and having a plurality of mating threads that are threadably engaged with the threads of the forward trip member; an adjustment knob rotatably disposed about a second axis that is not coincident with the first axis, the adjustment knob including a second geared portion meshingly engaged with the first geared portion; and a spring biasing the forward trip member toward the preset position.
A method for operating a hybrid vehicle, especially a series-produced hybrid vehicle, comprising at least one electric motor and at least one internal combustion engine, with the internal combustion engine being operated in at least one first operating range (B, D) of the vehicle, especially in a stationary manner, and being deactivated in at least one second operating range (A, C) of the vehicle, with a basic sound (S B) being artificially generated during the second operating range (A, C), which basic sound corresponds to the operating sound (S C) of the internal combustion engine, characterised in that the basic sound (S B) will dynamically be applied at least in part in an inverse manner to the operating sound (S C) of the internal combustion engine.
Method for determining measuring points in low-voltage networks having the following method steps repeated at periodic time intervals: - in a database measured values, together with time information, are acquired by measuring devices (MG1, MG2,..., MG n) present in the low-voltage network; - different load scenarios are determined from the acquired data with the aid of self-learnt algorithms in each case; - measuring devices (MG1, MG2,... MG n) with particularly meaningful measured values are determined relating to the determined, in each case different load scenarios and these measuring devices (MG1, MG2,... MG n) are defined as measuring points (MS1, MS 2,... MS k) for the determined, in each case different load scenarios, wherein on the basis of the measured values acquired in the database, nodes in the low-voltage network are determined as measuring points (MS1, MS2,..., MS k), said nodes having above-average high and/or low current and/or voltage measured values with a corresponding frequency. - in a database measured values, together with time information, are acquired by measuring devices (MG1, MG2,..., MG n) present in the low-voltage network; - different load scenarios are determined from the acquired data with the aid of self-learnt algorithms in each case; - measuring devices (MG1, MG2,... MG n) with particularly meaningful measured values are determined relating to the determined, in each case different load scenarios and these measuring devices (MG1, MG2,... MG n) are defined as measuring points (MS1, MS 2,... MS k) for the determined, in each case different load scenarios, wherein on the basis of the measured values acquired in the database, nodes in the low-voltage network are determined as measuring points (MS1, MS2,..., MS k), said nodes having above-average high and/or low current and/or voltage measured values with a corresponding frequency.
A core (40; 140) comprising a body including a cooling passage portion having a film cooling passage portion (46; 146) extending there from to a film cooling hole portion (48; 148), an exterior airfoil portion (50; 138) connected to the cooling hole portion (48; 148) and spaced apart from the cooling passage portion providing a space surrounding the film cooling hole portion (48; 148) that corresponds to an exterior airfoil wall.
Use of the etching solution comprising: ◆ an oxidizing agent comprising Ce 4+, and ◆ a solvent, for revealing defects in a thin germanium layer with a thickness of between 20 nm and 2 μm. ◆ an oxidizing agent comprising Ce 4+, and ◆ a solvent,
An ordinary temperature construction type hot asphalt mixture comprising an asphalt, a lubricative solidification material and an alkaline additive material that are mixed together, characterized in that the asphalt mixture further comprises an aggregate, wherein the lubricative solidification material contains a fatty acid and a resin acid with a ratio of 99.5:0.5 to 80:20 as a weight ratio of "fatty acid:resin acid", wherein the asphalt and the lubricative solidification material are within a range of 10:90 to 90:10 as a weight ratio of "asphalt:lubricative solidification material", and wherein the lubricative solidification material and the alkaline additive material are within a range of 100:10 to 100:300 as a weight ratio of "lubricative solidification material:alkaline additive material".
A method performed by a user equipment comprising: receiving a traffic steering command at the user equipment; and changing, responsive to receiving the command, at least one rule or parameter by which the user equipment operates with a radio access network; characterised in that the changing the at least one rule or parameter by which the user equipment operates with a radio access network comprises disabling a behaviour of a first standard in favor of a behaviour of a second standard when the traffic steering command is received; wherein the first standard and the second standard are for aggregation and/or interworking. receiving a traffic steering command at the user equipment; and changing, responsive to receiving the command, at least one rule or parameter by which the user equipment operates with a radio access network; characterised in that the changing the at least one rule or parameter by which the user equipment operates with a radio access network comprises disabling a behaviour of a first standard in favor of a behaviour of a second standard when the traffic steering command is received; wherein the first standard and the second standard are for aggregation and/or interworking.
An articulated stand for holding an electronic device, the articulated stand comprising: a first part defining a ball pivot and suitable for holding the electronic device; and a second part comprising a ball housing portion receiving the ball pivot to form a ball joint; wherein the ball pivot has a chamber and a connector accommodated at least partially in the chamber, for plugging a cable connector through the ball pivot and the ball housing portion, characterized in that the second part further comprises a fixing portion adapted to be fixed on a fixing surface and having a longitudinal axis (B-B') offset from a longitudinal axis (A-A') of the chamber and wherein the second part defines a free space between the ball housing portion and the fixing portion. a first part defining a ball pivot and suitable for holding the electronic device; and a second part comprising a ball housing portion receiving the ball pivot to form a ball joint; wherein the ball pivot has a chamber and a connector accommodated at least partially in the chamber, for plugging a cable connector through the ball pivot and the ball housing portion, characterized in that the second part further comprises a fixing portion adapted to be fixed on a fixing surface and having a longitudinal axis (B-B') offset from a longitudinal axis (A-A') of the chamber and wherein the second part defines a free space between the ball housing portion and the fixing portion.
A steer-by-wire steering system for a motor vehicle with a steerable front wheel axle comprising two steerable wheels (7, 70), wherein the front wheel axle comprises a single wheel drive which, by means of a drive controller, individually drives wheel drives (10, 100) which are associated with the steerable wheels (7, 70), characterized in that the drive controller comprises a controller which determines a target speed for a left-hand wheel (v vrl,soll) of the steerable wheels (7, 70) and a target speed for a right-hand wheel (v vrr,soll) of the steerable wheels (7, 70) in accordance with an accelerator pedal angle (α ped) and a rotational angle (β SW) of a steering shaft, and which limits said target speeds to a slip-limited speed (v s,vr), wherein the drive controller individually drives the wheel drives (10, 100) in such a way that the difference (v err,r, v err,l) between the target speed and the actual speed (v vrr,ist, v vrl,ist) for each steerable wheel (7, 70) is minimal.
A power control method, comprising: determining that measurement reports associated with a first macrocell identifier are not being received on a first frequency from a first macrocell via an access terminal at a femtocell; determining that measurement reports associated with the first macrocell identifier are being received on a second frequency from a second macrocell via the access terminal at the femtocell, wherein the second macrocell is co-located with the first macrocell; and controlling transmit power of the femtocell on the first frequency based on the measurement reports received from the second macrocell, wherein the controlling of the transmit power is further based on the determination that measurement reports are not being received from the first macrocell. determining that measurement reports associated with a first macrocell identifier are not being received on a first frequency from a first macrocell via an access terminal at a femtocell; determining that measurement reports associated with the first macrocell identifier are being received on a second frequency from a second macrocell via the access terminal at the femtocell, wherein the second macrocell is co-located with the first macrocell; and controlling transmit power of the femtocell on the first frequency based on the measurement reports received from the second macrocell, wherein the controlling of the transmit power is further based on the determination that measurement reports are not being received from the first macrocell.
A method of performing a Proximity-based Service, ProSe, by a first Public Safety ProSe-enabled User Equipment, UE, in a cellular communication system, the method comprising: transmitting (S1304; S1404), to a network, a first Scheduling Request, SR, signal for requesting a resource of a public safety band with a first identifier including a Cell identifier; establishing a connection with a second Public Safety ProSe-enabled UE using a first resource of the public safety band assigned by the network, characterized in that the method comprises: checking (S1306; S1406) whether the public safety band lacks channel resources, and, if the public safety band lacks channel resources: transmitting (S1308; S1408), to the network, a second SR signal for requesting a resource of a non-public safety band with a second identifier including an identifier allocated by the network; and establishing a connection with the second Public Safety ProSe-enabled UE using a second resource in the non-public safety band assigned by the network during a time period indicated by time information received from the network. transmitting (S1304; S1404), to a network, a first Scheduling Request, SR, signal for requesting a resource of a public safety band with a first identifier including a Cell identifier; establishing a connection with a second Public Safety ProSe-enabled UE using a first resource of the public safety band assigned by the network, characterized in that the method comprises: checking (S1306; S1406) whether the public safety band lacks channel resources, and, if the public safety band lacks channel resources: transmitting (S1308; S1408), to the network, a second SR signal for requesting a resource of a non-public safety band with a second identifier including an identifier allocated by the network; and establishing a connection with the second Public Safety ProSe-enabled UE using a second resource in the non-public safety band assigned by the network during a time period indicated by time information received from the network. checking (S1306; S1406) whether the public safety band lacks channel resources, and, if the public safety band lacks channel resources: transmitting (S1308; S1408), to the network, a second SR signal for requesting a resource of a non-public safety band with a second identifier including an identifier allocated by the network; and establishing a connection with the second Public Safety ProSe-enabled UE using a second resource in the non-public safety band assigned by the network during a time period indicated by time information received from the network. transmitting (S1308; S1408), to the network, a second SR signal for requesting a resource of a non-public safety band with a second identifier including an identifier allocated by the network; and establishing a connection with the second Public Safety ProSe-enabled UE using a second resource in the non-public safety band assigned by the network during a time period indicated by time information received from the network.
A multiscale hierarchical scaffold for replacing, repairing, regenerating, reconstructing or simulating a tissue, in particular the tendinous and/or ligamentous and/or muscular and/or nervous tissue comprising: - a plurality of clusters obtained by electrospinning each one consisting of nanofibers, wherein said plurality of clusters are arranged in order to form one single group; - a porous sheath obtained by electrospinning consisting of nanofibers, wherein said sheath externally coats and compacts said plurality of clusters keeping them aligned with each other. - a plurality of clusters obtained by electrospinning each one consisting of nanofibers, wherein said plurality of clusters are arranged in order to form one single group; - a porous sheath obtained by electrospinning consisting of nanofibers, wherein said sheath externally coats and compacts said plurality of clusters keeping them aligned with each other.
A resistively loaded antenna, comprising: a CNT layer with varying resistance at differing locations (2330, 2340) in the antenna; and electrical contacts to the CNT layer. a CNT layer with varying resistance at differing locations (2330, 2340) in the antenna; and electrical contacts to the CNT layer.
A stator for a rotary electric machine equipped with a stator core having a plurality of slots (14, 15) in a circumferential direction, and stator windings which are made of wire and disposed in the slots wherein said wire is formed to continue over an entire circumference of said stator core, and said stator windings include in-slot portions disposed in the slots different in the circumferential direction and turned portions, wherein each turned portion of the wire connects to two in-slot portions at the end surface of the axial side of the stator core and extends outside the stator core and has a crank portion having a cranked shape at a section of the turned portion which is farthest away from the stator core and extending parallel to the end surface of the stator core; characterized in that each of said turned portions of the wire is shaped stepwise to have plurality of steps (46, 48) on both sides of the crank portion in axial direction of the stator core, each of said steps (46, 48) include a portion extending in circumferential direction of the stator core substantially parallel to the end surface of said stator core.
A mobile cage system for posterior or lateral insertion in an intervertebral disc space, said system comprising: a. a first cap having a first cap first end, a first cap second end opposite the first cap first end, a first cap inner surface, a first cap outer surface, a first cap concave indentation disposed in the first cap inner surface, and a first cap loading indentation disposed in the first cap inner surface at the first cap second end, wherein at least a portion of the first cap outer surface is porous; b. a second cap having a second cap first end, a second cap second end opposite the second cap first end, a second cap inner surface facing the first cap inner surface of the first cap, a second cap outer surface, a second cap concave indentation disposed in the second cap inner surface, and a second cap loading indentation disposed in the second cap inner surface at the second cap second end, wherein at least a portion of the second cap outer surface is porous; and c. a nucleus disposed between the first cap and second cap and cradled by the first cap concave indentation and second cap concave indentation, the system allows for motion of at least one cap (110, 210) relative to the nucleus characterised in that the caps (110, 210) move between a collapsed position wherein the first cap inner surface and second cap inner surface are in contact and the first cap concave indentation and second cap concave indentation are aligned and a separated position wherein the caps (110, 210) are positioned a distance apart. a. a first cap having a first cap first end, a first cap second end opposite the first cap first end, a first cap inner surface, a first cap outer surface, a first cap concave indentation disposed in the first cap inner surface, and a first cap loading indentation disposed in the first cap inner surface at the first cap second end, wherein at least a portion of the first cap outer surface is porous; b. a second cap having a second cap first end, a second cap second end opposite the second cap first end, a second cap inner surface facing the first cap inner surface of the first cap, a second cap outer surface, a second cap concave indentation disposed in the second cap inner surface, and a second cap loading indentation disposed in the second cap inner surface at the second cap second end, wherein at least a portion of the second cap outer surface is porous; and c. a nucleus disposed between the first cap and second cap and cradled by the first cap concave indentation and second cap concave indentation, the system allows for motion of at least one cap (110, 210) relative to the nucleus
A thermal inkjet resistor comprising: a plurality of individual drop generators each including: a rigid floor substrate, a top nozzle plate having a nozzle outlet through which fluid droplets are to be ejected, a thin film stack including an oxide layer, a metal layer defining individual resistor elements that form a resistor structure, conductive electrode traces, a passivation layer and a cavitation layer; and an uneven nucleation surface having protruding ridges (700, 800) separated by recessed channels and formed as a top layer of the resistor structure to vaporize fluid when heated by the resistor elements, wherein a width of each protruding ridge (700, 800) corresponds with an associated resistor element underlying the nucleation surface, further comprising a three-dimensional comb tooth structure associated with each individual resistor element, each comb tooth structure having the ridge (700, 800) formed over an associated resistor element and the channel formed in a space on either side of the associated resistor element, characterized by a range of between 0.25 and 3.00 micrometers for both the width of the resistor elements and the spacing between the resistor elements and by a tantalum cavitation layer. a plurality of individual drop generators each including: a rigid floor substrate, a top nozzle plate having a nozzle outlet through which fluid droplets are to be ejected, a thin film stack including an oxide layer, a metal layer defining individual resistor elements that form a resistor structure, conductive electrode traces, a passivation layer and a cavitation layer; and a rigid floor substrate, a top nozzle plate having a nozzle outlet through which fluid droplets are to be ejected, a thin film stack including an oxide layer, a metal layer defining individual resistor elements that form a resistor structure, conductive electrode traces, a passivation layer and a cavitation layer; and an uneven nucleation surface having protruding ridges (700, 800) separated by recessed channels and formed as a top layer of the resistor structure to vaporize fluid when heated by the resistor elements, wherein a width of each protruding ridge (700, 800) corresponds with an associated resistor element underlying the nucleation surface, further comprising a three-dimensional comb tooth structure associated with each individual resistor element, each comb tooth structure having the ridge (700, 800) formed over an associated resistor element and the channel formed in a space on either side of the associated resistor element, characterized by a range of between 0.25 and 3.00 micrometers for both the width of the resistor elements and the spacing between the resistor elements and by a tantalum cavitation layer.