mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a wind turbine comprising - controlling production of electric power dependent on a power reference (Pext), - controlling a pitch of a blade of the wind turbine using a pitch request (θreq), where the pitch request (θreq) is amplified by an adjustable gain , - setting the adjustable gain to an increased gain value (G1, Gi) if a rate of change (ΔP) of the power reference (Pext) exceeds a threshold (AP1, ΔP3), characterized in that the method further comprising - controlling the pitch until the pitch reaches a pitch reference (θopt) determined dependent on a wind speed, - controlling the production of electric power dependent on a difference between an operational reference (ωref) and a measured operational parameter (ωm), and - controlling the pitch dependent on the pitch reference (θopt), after the pitch has reached the pitch reference (θopt). - controlling production of electric power dependent on a power reference (Pext), - controlling a pitch of a blade of the wind turbine using a pitch request (θreq), where the pitch request (θreq) is amplified by an adjustable gain , - setting the adjustable gain to an increased gain value (G1, Gi) if a rate of change (ΔP) of the power reference (Pext) exceeds a threshold (AP1, ΔP3), characterized in that the method further comprising - controlling the pitch until the pitch reaches a pitch reference (θopt) determined dependent on a wind speed, - controlling the production of electric power dependent on a difference between an operational reference (ωref) and a measured operational parameter (ωm), and - controlling the pitch dependent on the pitch reference (θopt), after the pitch has reached the pitch reference (θopt).
An adeno-associated virus (AAV) capsid protein having a terminally grafted nuclease, wherein the nuclease is selected from: Transcription Activator-like Effector Nucleases (TALENs), Zinc Finger Nucleases (ZFNs), engineered meganuclease, re-engineered homing endonucleases, and a Cas-family nuclease.
A self-propelled underwater vehicle for removing concrete mattresses from the seabed , comprising: a drive system adapted to drive the vehicle across a seabed on which the vehicle is supported in use; characterised in that , the vehicle further comprises a crushing mechanism supported by a body , which mechanism is adapted to crush subsea material that comprises concrete mattresses ; a self-loading system for feeding said material into the crushing mechanism to be crushed; and a disposal system for receiving crushed debris from the crushing mechanism , the disposal system comprising a container for holding the crushed debris; wherein the body further comprises a housing surrounding the crushing mechanism , the housing having an intake opening communicating with the crushing mechanism for receiving said material from the self-loading system; and wherein the self-loading system comprises at least one articulated lifting arm that is mounted to the body and is capable of reaching across the intake opening and to the seabed in use. a drive system adapted to drive the vehicle across a seabed on which the vehicle is supported in use; characterised in that , the vehicle further comprises a crushing mechanism supported by a body , which mechanism is adapted to crush subsea material that comprises concrete mattresses ; a self-loading system for feeding said material into the crushing mechanism to be crushed; and a disposal system for receiving crushed debris from the crushing mechanism , the disposal system comprising a container for holding the crushed debris; wherein the body further comprises a housing surrounding the crushing mechanism , the housing having an intake opening communicating with the crushing mechanism for receiving said material from the self-loading system; and wherein the self-loading system comprises at least one articulated lifting arm that is mounted to the body and is capable of reaching across the intake opening and to the seabed in use.
An electric power substation , comprising: one or more primary relay panels located at the substation site and susceptible to damage caused by radiated or coupled electromagnetic energy; and one or more backup relay panels (122a,b) capable of assuming operation of the one or more primary relay panels , characterized in that : the substation further comprises an electromagnetic pulse mitigation module located at the substation site and comprising a continuous conductive enclosure that is impervious to the radiated or coupled electromagnetic energy, and in that the one or more backup relay panels (122a,b) are housed within the electromagnetic pulse mitigation module and the one or more primary relay panels are not housed within the electromagnetic pulse mitigation module . one or more primary relay panels located at the substation site and susceptible to damage caused by radiated or coupled electromagnetic energy; and one or more backup relay panels (122a,b) capable of assuming operation of the one or more primary relay panels , characterized in that : the substation further comprises an electromagnetic pulse mitigation module located at the substation site and comprising a continuous conductive enclosure that is impervious to the radiated or coupled electromagnetic energy, and in that the one or more backup relay panels (122a,b) are housed within the electromagnetic pulse mitigation module and the one or more primary relay panels are not housed within the electromagnetic pulse mitigation module . the substation further comprises an electromagnetic pulse mitigation module located at the substation site and comprising a continuous conductive enclosure that is impervious to the radiated or coupled electromagnetic energy, and in that the one or more backup relay panels (122a,b) are housed within the electromagnetic pulse mitigation module and the one or more primary relay panels are not housed within the electromagnetic pulse mitigation module .
A method performed by a wireless device , the method comprising: determining that two or more Packet Data Unit, PDU, sessions associated to at least one Data network identified by a Data Network Name, DNN, or to at least one Single Network Slice Assisted Information, S-NSSAI, should be released; characterized in transmitting to a control entity of a core network , a Non-Access-Stratum, NAS, message indicating one of the at least one DNN or the at least one S-NSSAI for which the corresponding PDU sessions should be released all at once. determining that two or more Packet Data Unit, PDU, sessions associated to at least one Data network identified by a Data Network Name, DNN, or to at least one Single Network Slice Assisted Information, S-NSSAI, should be released; characterized in transmitting to a control entity of a core network , a Non-Access-Stratum, NAS, message indicating one of the at least one DNN or the at least one S-NSSAI for which the corresponding PDU sessions should be released all at once.
A pharmaceutical composition comprising an arsenic carbonate and/or arsenic bicarbonate and a pharmaceutically acceptable excipient, wherein the pharmaceutical composition comprises the arsenic carbonate and/or bicarbonate in solid form.
A forming device that expands a metal pipe material to form a metal pipe, the device comprising: a die that has an upper die and a lower die , at least one of which is movable, and that form the metal pipe; an electrode that energizes the metal pipe material to heat the metal pipe material ; a gas supply part that supplies a gas into the heated metal pipe material to expand the metal pipe material ; characterized by a die movement suppressing part that suppresses the movement of the die by an electromagnetic force at least when the energization to the metal pipe material is performed by the electrode , wherein the die movement suppressing part is provided with a fixing part that mechanically fixes the lower die at least when the energization to the metal pipe material is performed by the electrode . a die that has an upper die and a lower die , at least one of which is movable, and that form the metal pipe; an electrode that energizes the metal pipe material to heat the metal pipe material ; a gas supply part that supplies a gas into the heated metal pipe material to expand the metal pipe material ; characterized by a die movement suppressing part that suppresses the movement of the die by an electromagnetic force at least when the energization to the metal pipe material is performed by the electrode , wherein the die movement suppressing part is provided with a fixing part that mechanically fixes the lower die at least when the energization to the metal pipe material is performed by the electrode .
Dosing and pouring apparatus for flowable substances, having a receiving part which surrounds a dosing chamber and has at least one passage window , having a dosing insert which is rotatable relative to the receiving part and is arranged within the receiving part and has at least one dosing window , and having a rotatable closure part which is equipped with first engagement means which, in the assembled state of the components , are in a state of engagement with corresponding second engagement means on the dosing insert such that rotation of the closure part from a first position into a second position and vice versa results in rotation of the dosing insert relative to the receiving part , wherein, in the first position, the at least one dosing window of the dosing insert and the at least one passage window of the receiving part at least partially overlap one another, with the result that, with the dosing and pouring apparatus closed, the dosing chamber of the dosing insert can be filled by upending a container on which the dosing and pouring apparatus is fitted and turning said container back into the initial position again, and in the second position, the dosing window and the passage window are separated from one another, with the result that the closure part can be removed and the metered quantity of flowable substance situated in the dosing chamber can be poured out, wherein the first engagement means and the second engagement means are out of engagement with rotation of the closure part beyond the second position.
Equipment for emptying bins on a refuse collection vehicle, comprising: a guide frame ; a trolley movable along the guide frame and carrying a pair of lifting arms operatively engageable to respective gripping elements carried by respectively opposite side walls of a box ; a support assembly securable to a side of a motor vehicle ; a kinematic group binding the guide frame to the support assembly ; at least one control actuator operating on the kinematic group to move the guide frame between an approached position with respect to said side and a position of maximum distance from said side ; characterized in that said kinematic group comprises: at least support arm having a respective proximal end rotatably constrained to the support assembly and a distal end rotatably constrained to an upper end of the guide frame ; and at least one push arm having a proximal end rotatably constrained to the support assembly , and a distal end slidably guided along a lower portion of the guide frame , spaced from said upper end ; at least one strut having a lower end constrained near the proximal end of the push arm , and an upper end constrained near the proximal end of the support arm . a guide frame ; a trolley movable along the guide frame and carrying a pair of lifting arms operatively engageable to respective gripping elements carried by respectively opposite side walls of a box ; a support assembly securable to a side of a motor vehicle ; a kinematic group binding the guide frame to the support assembly ; at least one control actuator operating on the kinematic group to move the guide frame between an approached position with respect to said side and a position of maximum distance from said side ; characterized in that said kinematic group comprises: at least support arm having a respective proximal end rotatably constrained to the support assembly and a distal end rotatably constrained to an upper end of the guide frame ; and at least one push arm having a proximal end rotatably constrained to the support assembly , and a distal end slidably guided along a lower portion of the guide frame , spaced from said upper end ; at least one strut having a lower end constrained near the proximal end of the push arm , and an upper end constrained near the proximal end of the support arm . at least support arm having a respective proximal end rotatably constrained to the support assembly and a distal end rotatably constrained to an upper end of the guide frame ; and at least one push arm having a proximal end rotatably constrained to the support assembly , and a distal end slidably guided along a lower portion of the guide frame , spaced from said upper end ; at least one strut having a lower end constrained near the proximal end of the push arm , and an upper end constrained near the proximal end of the support arm .
A synchronous reluctance motor rotor, comprising a rotor core , wherein the rotor core comprises a plurality of magnetic-flux barrier groups , and each magnetic-flux barrier group comprises at least two magnetic-flux barriers provided at an interval in a radial direction of the rotor core ; the rotor core further comprises magnetic bridges , the magnetic bridges are disposed within the magnetic-flux barriers and connect inner surfaces of the magnetic-flux barriers with outer surfaces of the magnetic-flux barriers , and a distance between the magnetic bridges and an outer edge of the rotor core is no less than a predetermined distance; characterized in that : in a rotating direction (A) of the motor, each of the magnetic-flux barriers comprises a front magnetic bridge and a rear magnetic bridge , the rear magnetic bridge is located downstream of the front magnetic bridge along the rotating direction, and a width, W1, of the front magnetic bridge is smaller than a width, W2, of the rear magnetic bridge .
A binocular having two tubes , which are connected to one another by means of a hinged bridge pivotable about a hinge axis for adjusting the interpupillary distance , and an axially displaceable focusing means is arranged in each one of the two tubes , and wherein a common focusing device for displacing the focusing means is formed, and the focusing device comprises a housing and a focusing knob , wherein the focusing knob is rotatable about a rotational axis arranged coaxially to the hinge axis , wherein the focusing knob is connected to the focusing means by a focusing gear , wherein the focusing gear comprises a threaded spindle with an inner sleeve , wherein an inwardly projecting guide pin is arranged on an inner circumference of the inner sleeve of the threaded spindle , characterized in that the guide pin abuts against a stop (13-1, 13-2) at both ends of a rotational range and limits the rotational range of the focusing knob .
Surgical instrument for use in dental surgery, having a processing device and a protection device wherein the processing device has a shaft having a connection region and a hollow-cylindrical head , wherein at a distal edge of the head an active region for cutting or grinding processing of bones is constructed, wherein the protection device surrounds the head at least in regions, wherein the protection device surrounds the head in such a manner that only a circular arc of the distal edge acts as an active region and wherein the protection device is rotatably coupled to a bearing element of the processing device , which bearing element extends inside the head at least in regions.
A method for forming supported noble metal nanoparticles and/or noble metal-M alloy nanoparticles composite, M being a less noble metal galvanically displaced to deposit the noble metal, the method comprising the following steps: (a) providing a M/S precursor material of metal particles, M, on electrical conductive support particles, S, where M is one or more metal having lower standard electrode potential than the noble metal, wherein the support particles have an electrical conductivity larger than any formed passivating M-oxide layer of the metal M deposited thereon; (b) suspending the M/S precursor material in a liquid medium, the liquid medium having a pH at which an in-situ passivating oxide is thermodynamically formed at least on the surface of the metal M particles being exposed to the liquid medium, forming a passivated MO y /S suspension, y being > 0 up to a stoichiometric M-oxide value; (c) providing an adsorptive gas to the MO y /S suspension, the adsorptive gas being selectively adsorbable on the noble metal to be deposited; (d) adding a noble metal precursor to the MO y /S suspension, thereby depositing as a reaction product crystalline noble metal nanoparticles and/or crystalline noble metal-M alloy nanoparticles on the support particles by a galvanic displacement reaction, wherein the adsorptive gas is selectively adsorbed on the deposited noble metal; and (e) separating and washing the as-synthesized reaction product. (a) providing a M/S precursor material of metal particles, M, on electrical conductive support particles, S, where M is one or more metal having lower standard electrode potential than the noble metal, wherein the support particles have an electrical conductivity larger than any formed passivating M-oxide layer of the metal M deposited thereon; (b) suspending the M/S precursor material in a liquid medium, the liquid medium having a pH at which an in-situ passivating oxide is thermodynamically formed at least on the surface of the metal M particles being exposed to the liquid medium, forming a passivated MO y /S suspension, y being > 0 up to a stoichiometric M-oxide value; (c) providing an adsorptive gas to the MO y /S suspension, the adsorptive gas being selectively adsorbable on the noble metal to be deposited; (d) adding a noble metal precursor to the MO y /S suspension, thereby depositing as a reaction product crystalline noble metal nanoparticles and/or crystalline noble metal-M alloy nanoparticles on the support particles by a galvanic displacement reaction, wherein the adsorptive gas is selectively adsorbed on the deposited noble metal; and (e) separating and washing the as-synthesized reaction product.
A fan case for a gas turbine aircraft engine , the fan case formed of an outer wall extending in a loop around an axis and along the axis , and having a case length along the axis , and a case perimeter around the axis , wherein the fan case comprises two or more longitudinal segments (78a,b,c) configured to be assembled to form the outer wall , wherein each longitudinal segment (78a,b,c) includes a portion (50a,b,c) of the outer wall extending at least part of the length of the fan case and forming an incomplete portion of the perimeter of the fan case and characterised in that each longitudinal segment (78a,b,c) extends the full length of the fan case , and wherein the outer wall includes one or more strengthening ribs , each strengthening rib extending around the axis .
A lock nut assembly comprising: a first component provided with a threaded axial through hole and a coupling extending axially from one end; and a second component provided with an axial hole , wherein the second component has a coupling portion which extends axially from a first end of the second component , characterised by a locking portion , wherein a portion of the axial hole extends from the locking portion to a second end opposite the first end , the locking portion being arranged to deform to form a thread on engagement with a threaded member ; the first and second components being detachably coupled together by inter-fitting of the coupling portions and arranged so that both components are simultaneously engagable with a common tool to effect application of the assembly onto a threaded member by operation of the tool to impart torque to the assembly in a first direction, with the first component initially engaging the threaded member and continued screwing of the assembly results in the threaded member deforming a thread into the locking portion to lock the first component on the threaded member and wherein the second component is able to be removed from the threaded member and detached from the first component by rotation in a direction opposite to the first direction. a first component provided with a threaded axial through hole and a coupling extending axially from one end; and a second component provided with an axial hole , wherein the second component has a coupling portion which extends axially from a first end of the second component , characterised by a locking portion , wherein a portion of the axial hole extends from the locking portion to a second end opposite the first end , the locking portion being arranged to deform to form a thread on engagement with a threaded member ; the first and second components being detachably coupled together by inter-fitting of the coupling portions and arranged so that both components are simultaneously engagable with a common tool to effect application of the assembly onto a threaded member by operation of the tool to impart torque to the assembly in a first direction, with the first component initially engaging the threaded member and continued screwing of the assembly results in the threaded member deforming a thread into the locking portion to lock the first component on the threaded member and wherein the second component is able to be removed from the threaded member and detached from the first component by rotation in a direction opposite to the first direction.
A blow-formed, multi-thickness welded vehicle steel rail comprising: (a) a first tube having a first outer diameter (A), an inner diameter (B) and a first wall thickness (C); (b) a second tube having the first outer diameter (A), a second inner diameter (F) and a second wall thickness (D) different than the first wall thickness (C); (c) a first end of the first tube swaged to a second outer diameter less than the second inner diameter (F) of the second tube ; (d) the swaged first end of the first tube inserted into an end of the second tube and forming an overlapping joint ; (e) the first tube and the second tube welded together at the overlapping joint using MAG welding to form a tube blank ; (f) the tube blank having been subjected to thermomechanical processing comprising preheating, blow molding and quenching. (a) a first tube having a first outer diameter (A), an inner diameter (B) and a first wall thickness (C); (b) a second tube having the first outer diameter (A), a second inner diameter (F) and a second wall thickness (D) different than the first wall thickness (C); (c) a first end of the first tube swaged to a second outer diameter less than the second inner diameter (F) of the second tube ; (d) the swaged first end of the first tube inserted into an end of the second tube and forming an overlapping joint ; (e) the first tube and the second tube welded together at the overlapping joint using MAG welding to form a tube blank ; (f) the tube blank having been subjected to thermomechanical processing comprising preheating, blow molding and quenching.