mhurhangee/patent-ind-claim-en huggingface dataset:
A hook body (230; 330; 430; 530) for a latch mechanism (220; 320; 420; 520 1 ; 520 2 ), comprising: a plurality of longitudinal members (360, 361, 362; 460, 462), each of the plurality of longitudinal members (360, 361, 362; 460, 462) extending in a longitudinal direction with respect to the hook body (230; 330; 430; 530), the plurality of longitudinal members (360, 361, 362; 460, 462) including a first upper longitudinal beam (360; 460) and a second upper longitudinal beam , the first upper longitudinal beam (360; 460) and the second upper longitudinal beam having between about zero degrees to about twenty degrees deviation from parallel in the longitudinal direction; and a hook body load bearing plate (257; 357; 457; 557) connected to the plurality of longitudinal members (230; 330; 430; 530) and being oriented perpendicular to the longitudinal direction, the hook body load bearing plate (257; 357; 457; 557) configured to slidably receive a shaft (258; 358; 458; 558 1 ; 558 2 ) connected to a hook (238; 338; 438; 538), the shaft (258; 358; 458; 558 1 ; 558 2 ) extending in use in the longitudinal direction with respect to the hook body (230; 330; 430; 530), characterized in that the hook body (230; 330; 430; 530) further comprises: a first aft flange (364; 464) and a second aft flange , wherein the first upper longitudinal beam (360; 460) is connected to the first aft flange (364; 464) and the second upper longitudinal beam is connected to the second aft flange . a plurality of longitudinal members (360, 361, 362; 460, 462), each of the plurality of longitudinal members (360, 361, 362; 460, 462) extending in a longitudinal direction with respect to the hook body (230; 330; 430; 530), the plurality of longitudinal members (360, 361, 362; 460, 462) including a first upper longitudinal beam (360; 460) and a second upper longitudinal beam , the first upper longitudinal beam (360; 460) and the second upper longitudinal beam having between about zero degrees to about twenty degrees deviation from parallel in the longitudinal direction; and a hook body load bearing plate (257; 357; 457; 557) connected to the plurality of longitudinal members (230; 330; 430; 530) and being oriented perpendicular to the longitudinal direction, the hook body load bearing plate (257; 357; 457; 557) configured to slidably receive a shaft (258; 358; 458; 558 1 ; 558 2 ) connected to a hook (238; 338; 438; 538), the shaft (258; 358; 458; 558 1 ; 558 2 ) extending in use in the longitudinal direction with respect to the hook body (230; 330; 430; 530), characterized in that the hook body (230; 330; 430; 530) further comprises: a first aft flange (364; 464) and a second aft flange , wherein the first upper longitudinal beam (360; 460) is connected to the first aft flange (364; 464) and the second upper longitudinal beam is connected to the second aft flange .
A micro-electro-mechanical mirror device , comprising: a fixed structure defining an external frame delimiting a cavity ; a tiltable structure extending into the cavity; a reflecting surface carried by the tiltable structure and having a main extension in a horizontal plane (XY); an actuation structure , coupled between the tiltable structure and the fixed structure , wherein the actuation structure comprises at least one first pair of actuation arms configured to cause the rotation of the tiltable structure around a first rotation axis (SA) parallel to the horizontal plane (XY), the actuation arms of the first pair of actuation arms being elastically coupled to the tiltable structure through respective coupling elastic elements and each comprising a bearing structure and a piezoelectric structure , characterized in that the bearing structure of each actuation arm of the first pair of actuation arms comprises a soft region of a first material and the coupling elastic elements comprise a bearing layer of a second material, the second material having greater stiffness than the first material. a fixed structure defining an external frame delimiting a cavity ; a tiltable structure extending into the cavity; a reflecting surface carried by the tiltable structure and having a main extension in a horizontal plane (XY); an actuation structure , coupled between the tiltable structure and the fixed structure , wherein the actuation structure comprises at least one first pair of actuation arms configured to cause the rotation of the tiltable structure around a first rotation axis (SA) parallel to the horizontal plane (XY), the actuation arms of the first pair of actuation arms being elastically coupled to the tiltable structure through respective coupling elastic elements and each comprising a bearing structure and a piezoelectric structure , characterized in that the bearing structure of each actuation arm of the first pair of actuation arms comprises a soft region of a first material and the coupling elastic elements comprise a bearing layer of a second material, the second material having greater stiffness than the first material.
A wellsite connector for connecting components of a wellsite, the wellsite having a wellbore extending into a subsurface formation, the wellsite connector comprising: a connector body having a longitudinal axis (X-X,604), said connector body having an upper axial end adapted for coupling to a first of the components and a cavity to receive a second of the components; said second component being introduced into the cavity through a lower axial end of the connector; a piston axially movable in the connector body, the piston having a piston profile along an inner surface thereof; and a plurality of collets positionable about the connector body adjacent the piston and radially movable thereabout, the plurality of collets having a collet profile along an outer surface thereof corresponding to the piston profile of the piston and the plurality of collets having a grip profile along an inner surface thereof selectively engageable with the second of the components whereby the plurality of collets are selectively latchable about the second of the components, characterized in that the wellsite connector further comprises a floatable seal member comprising a flexible ring having a hole therethrough to sealingly receive the second of the components, the seal member slidably movable in a pocket of the connector transversely to the axis of the connector body whereby the second components is alignable to the first component for connection therebetween. a connector body having a longitudinal axis (X-X,604), said connector body having an upper axial end adapted for coupling to a first of the components and a cavity to receive a second of the components; said second component being introduced into the cavity through a lower axial end of the connector; a piston axially movable in the connector body, the piston having a piston profile along an inner surface thereof; and a plurality of collets positionable about the connector body adjacent the piston and radially movable thereabout, the plurality of collets having a collet profile along an outer surface thereof corresponding to the piston profile of the piston and the plurality of collets having a grip profile along an inner surface thereof selectively engageable with the second of the components whereby the plurality of collets are selectively latchable about the second of the components, characterized in that the wellsite connector further comprises a floatable seal member comprising a flexible ring having a hole therethrough to sealingly receive the second of the components, the seal member slidably movable in a pocket of the connector transversely to the axis of the connector body whereby the second components is alignable to the first component for connection therebetween.
Nozzle system of a device for contact-free treatment of a running web, which nozzle system comprises an overpressure nozzle part and at least one direct impingement nozzle part (25A; 25B) arranged on either side of the overpressure nozzle part and in which nozzle system the direct impingement nozzle part is combined with the overpressure nozzle part such that no discharge passage for discharging gases is formed between the direct impingement nozzle part (25A; 25B) and the overpressure nozzle part , in which nozzle system the overpressure nozzle part has a carrier surface and on both sides of the carrier surface a nozzle orifice row formed of nozzle orifices and extending in length direction of the nozzle system and which nozzle orifices are configured to blow gas flows, which are guided against each other with the aid of curved Coanda-surfaces formed on each side of the carrier surface , in which nozzle system the direct impingement nozzle part (25A; 25B) comprises at least one nozzle orifice row formed of nozzle orifices configured to blow gas flows mainly perpendicularly in view of upper surface of the direct impingement nozzle parts , characterized in, that the overpressure nozzle part comprises on the carrier surface at least one row of direct impingement nozzle orifices configured to provide direct impingement blowing by gas flows directed mainly perpendicularly in view of the upper surface of the overpressure nozzle part and that in the nozzle system gas distribution between the direct impingement nozzle orifices , the direct impingement nozzle orifices of the carrier surface and the overpressure nozzle orifices is such that of the total gas amount 25 - 55% is blown through the direct impingement nozzle orifices and through the overpressure nozzle orifices is blown 30 - 60% of the total gas amount and through the direct impingement nozzle orifices of the carrier surface is blown 10 - 25 % of the total gas amount.
An implantable system for stimulating a human heart or an animal heart, comprising a processor , a memory unit , a stimulation unit for stimulating a His bundle of a human heart or an animal heart, and a detection unit for detecting an electrical signal of the same heart, wherein the memory unit includes a computer-readable program, which prompts the processor to carry out the following steps when the program is being executed on the processor : a) detecting by way of the detection unit whether a tachycardia is present in a human heart or an animal heart; and b) when a tachycardia is present, carrying out a His bundle stimulation by way of the stimulation unit using at least one stimulation pulse having an amplitude in a range of 7.5 V to 30 V, and having a pulse width in a range of 1 ms to 15 ms, wherein the program prompts the processor to classify a detected tachycardia into one of at least two classes, and wherein the stimulation of the His bundle is triggered depending on the class into which the detected tachycardia is classified. the memory unit includes a computer-readable program, which prompts the processor to carry out the following steps when the program is being executed on the processor : a) detecting by way of the detection unit whether a tachycardia is present in a human heart or an animal heart; and b) when a tachycardia is present, carrying out a His bundle stimulation by way of the stimulation unit using at least one stimulation pulse having an amplitude in a range of 7.5 V to 30 V, and having a pulse width in a range of 1 ms to 15 ms, a) detecting by way of the detection unit whether a tachycardia is present in a human heart or an animal heart; and b) when a tachycardia is present, carrying out a His bundle stimulation by way of the stimulation unit using at least one stimulation pulse wherein the program prompts the processor to classify a detected tachycardia into one of at least two classes, and wherein the stimulation of the His bundle is triggered depending on the class into which the detected tachycardia is classified.
An electrochemical process for producing from a solution of at least one soluble Fe n+ precursor salt in a solvent, magnetic iron oxide nanoparticles with a desired saturation magnetization, the process comprising the steps of - supplying the solution containing the at least one Fe n+ precursor salt to a cathode compartment of an electrochemical cell, containing a catholyte and equipped with a cathode comprising a gas diffusion electrode provided with a porous electrochemically active material, - supplying an O 2 -containing oxidant gas to the gas diffusion electrode, wherein the O 2 mole fraction in the oxidant gas ranges between 0.10 and 1.0, - subjecting the cathode to an electrochemical potential which is below the thermodynamic limits of O 2 reduction at a pH prevailing in the cathode compartment, - rendering a current between 10 and 1000 Am -2 to cause reduction of the O 2 contained in the oxidant gas, to one or more of the corresponding peroxide, OH-, ionic and/or radical reactive species to oxidize the Fe n+ ion into one or more magnetic iron oxides Fe 2+x O 3+x , with 0 < x < 1, with the Fe ion in an oxidation state that is higher than n+, - and isolating nanoparticles of the one or more magnetic iron oxides; wherein the concentration of the at least one soluble Fe n+ precursor salt in the solution is below 20.0 mM, preferably below 10.0 mM. - supplying the solution containing the at least one Fe n+ precursor salt to a cathode compartment of an electrochemical cell, containing a catholyte and equipped with a cathode comprising a gas diffusion electrode provided with a porous electrochemically active material, - supplying an O 2 -containing oxidant gas to the gas diffusion electrode, wherein the O 2 mole fraction in the oxidant gas ranges between 0.10 and 1.0, - subjecting the cathode to an electrochemical potential which is below the thermodynamic limits of O 2 reduction at a pH prevailing in the cathode compartment, - rendering a current between 10 and 1000 Am -2 to cause reduction of the O 2 contained in the oxidant gas, to one or more of the corresponding peroxide, OH-, ionic and/or radical reactive species to oxidize the Fe n+ ion into one or more magnetic iron oxides Fe 2+x O 3+x , with 0 < x < 1, with the Fe ion in an oxidation state that is higher than n+, - and isolating nanoparticles of the one or more magnetic iron oxides; wherein the concentration of the at least one soluble Fe n+ precursor salt in the solution is below 20.0 mM, preferably below 10.0 mM.
An orthodontic expansion screw comprising at least two bodies arranged at a mutual distance that can be changed by means of a spindle , which engages both bodies , wherein the spindle comprises an activating part , from which at least one threaded part proceeds into a threaded hole in one of the two bodies , so that the spindle and the threaded hole have a shared longitudinal axis, at least one guide pin , which engages both bodies and guides them while preventing a relative rotation of the bodies upon a change in their distance relative to each other, wherein the shared longitudinal axis runs parallel to the guide pin , wherein in order to prevent or impede an inadvertent twisting of the spindle relative to the bodies , the outer periphery of the activating part has a lateral surface , whose configuration differs from a lateral surface of a circular cylinder in such a way that there is at least one first position of the spindle in which the activating part contacts the guide pin with a pressure that causes an elastic deformation of the guide pin , and that there is at least one second position of the spindle in which the activating part does not contact the guide pin or contacts them with no pressure or so little pressure that no guide pin is deformed, wherein the configuration of the lateral surface of the activating part differs from the lateral surface of a circular cylinder in such a way that characterized in that the lateral surface of the activating part is flattened in two locations lying diametrically opposite each other in order to form two second positions. at least two bodies arranged at a mutual distance that can be changed by means of a spindle , which engages both bodies , wherein the spindle comprises an activating part , from which at least one threaded part proceeds into a threaded hole in one of the two bodies , so that the spindle and the threaded hole have a shared longitudinal axis, at least one guide pin , which engages both bodies and guides them while preventing a relative rotation of the bodies upon a change in their distance relative to each other, wherein the shared longitudinal axis runs parallel to the guide pin , wherein in order to prevent or impede an inadvertent twisting of the spindle relative to the bodies , the outer periphery of the activating part has a lateral surface , whose configuration differs from a lateral surface of a circular cylinder in such a way that there is at least one first position of the spindle in which the activating part contacts the guide pin with a pressure that causes an elastic deformation of the guide pin , and that there is at least one second position of the spindle in which the activating part does not contact the guide pin or contacts them with no pressure or so little pressure that no guide pin is deformed, wherein the configuration of the lateral surface of the activating part differs from the lateral surface of a circular cylinder in such a way that characterized in that the lateral surface of the activating part is flattened in two locations lying diametrically opposite each other in order to form two second positions.
An isolated rodent cell comprising: at least one unrearranged human T cell variable region Vα segment and at least one unrearranged human T cell variable region Jα segment operably linked to a rodent TCR α constant gene sequence at an endogenous rodent TCR α variable gene locus, and/or at least one unrearranged human T cell variable region Vβ segment, at least one unrearranged human T cell variable region Dβ segment, and at least one unrearranged human T cell variable region Jβ segment operably linked to a rodent TCRβ constant gene sequence at an endogenous rodent TCRβ variable gene locus, wherein the unrearranged human T cell variable region segments are capable of rearranging in a T cell to form genes that encode human T cell receptor variable domains that specifically bind an antigen of interest. at least one unrearranged human T cell variable region Vα segment and at least one unrearranged human T cell variable region Jα segment operably linked to a rodent TCR α constant gene sequence at an endogenous rodent TCR α variable gene locus, and/or at least one unrearranged human T cell variable region Vβ segment, at least one unrearranged human T cell variable region Dβ segment, and at least one unrearranged human T cell variable region Jβ segment operably linked to a rodent TCRβ constant gene sequence at an endogenous rodent TCRβ variable gene locus, wherein the unrearranged human T cell variable region segments are capable of rearranging in a T cell to form genes that encode human T cell receptor variable domains that specifically bind an antigen of interest.
A specimen diluent for use in a sandwich method, the specimen diluent comprising 10 mM to 500 mM of nitrilotriacetic acid or salts thereof and 10 mM to 500 mM of dithiothreitol.
A fan blade comprising: a body having a pressure side , a suction side adjoining the pressure side along a fan blade leading edge and a fan blade trailing edge , the suction side defining an opening having a perimeter and communicating with one or more cavities disposed in the body ; and a cover configured to fit over the opening and comprising a cover leading edge and a cover trailing edge which generally correspond to the fan blade leading edge and the fan blade trailing edge respectively, the cover further comprising a central portion having a uniform thickness, a cover leading portion extending forward of the central portion and terminating at the cover leading edge , and a cover trailing portion extending aft of the central portion and terminating at the cover trailing edge ; characterised in that both of the cover leading portion and the cover trailing portion are chamfered, the central portion extending with the uniform thickness from the cover leading portion chamfer to the cover trailing portion chamfer, the cover leading portion chamfer and the cover trailing portion chamfer each defining a reduced material thickness of the cover compared to the central portion, and wherein the cover leading portion chamfer and the cover trailing portion chamfer each comprising a flat chamfer; wherein the cover is formed from multiple plies of fiber/resin composite material. a body having a pressure side , a suction side adjoining the pressure side along a fan blade leading edge and a fan blade trailing edge , the suction side defining an opening having a perimeter and communicating with one or more cavities disposed in the body ; and a cover configured to fit over the opening and comprising a cover leading edge and a cover trailing edge which generally correspond to the fan blade leading edge and the fan blade trailing edge respectively, the cover further comprising a central portion having a uniform thickness, a cover leading portion extending forward of the central portion and terminating at the cover leading edge , and a cover trailing portion extending aft of the central portion and terminating at the cover trailing edge ; characterised in that both of the cover leading portion and the cover trailing portion are chamfered, the central portion extending with the uniform thickness from the cover leading portion chamfer to the cover trailing portion chamfer, the cover leading portion chamfer and the cover trailing portion chamfer each defining a reduced material thickness of the cover compared to the central portion, and wherein the cover leading portion chamfer and the cover trailing portion chamfer each comprising a flat chamfer; wherein the cover is formed from multiple plies of fiber/resin composite material.
A method of registration of a device as a Network Application Function, NAF, in a Generic Bootstrapping Architecture, GBA, the method comprising: the device performing a GBA bootstrap operation with a Bootstrapping Server Function, BSF; after performing the GBA bootstrap operation with the BSF, the device sending to a NAF registration function a request to register the device as a NAF; after sending the request to the NAF registration function, the device receiving NAF registration information from the NAF registration function, wherein the NAF registration information comprises a Fully Qualified Domain Name, FQDN, for use by the device as a NAF, wherein the FQDN is allocated to the device by the NAF registration function in response to receiving the request ; and after receiving the NAF registration information from the NAF registration function, the device performing a NAF registration of the device with the BSF the device performing a GBA bootstrap operation with a Bootstrapping Server Function, BSF; after performing the GBA bootstrap operation with the BSF, the device sending to a NAF registration function a request to register the device as a NAF; after sending the request to the NAF registration function, the device receiving NAF registration information from the NAF registration function, wherein the NAF registration information comprises a Fully Qualified Domain Name, FQDN, for use by the device as a NAF, wherein the FQDN is allocated to the device by the NAF registration function in response to receiving the request ; and after receiving the NAF registration information from the NAF registration function, the device performing a NAF registration of the device with the BSF