mhurhangee/ep-ind-claims huggingface dataset:
A Li 2 O bearing metallurgical slag comprising Al 2 O 3, SiO 2, CaO, and MnO, characterized by a by-weight composition according to: Co < 1%; 3% < Li 2 O < 20%; 1% < MnO < 7%; 38% < Al 2 O 3 < 65%; CaO < 55%; SiO 2 < 45%; and, Li 2 O + Al 2 O 3 + SiO 2 + CaO + MnO ≥ 73%. Co < 1%; 3% < Li 2 O < 20%; 1% < MnO < 7%; 38% < Al 2 O 3 < 65%; CaO < 55%; SiO 2 < 45%; and, Li 2 O + Al 2 O 3 + SiO 2 + CaO + MnO ≥ 73%.
A pourer comprising a conduit having an inlet (7, 8) and an outlet; sealing means comprising one or a plurality of sealing members extending radially from the conduit and dimensioned to engage an interior surface of a bottle neck; an air vent having an inlet and an outlet; the inlet and outlet of each of the conduit and air vent being located on opposite sides of the sealing means; wherein the pourer has a maximum diameter permitting it to be engaged completely within a bottle neck in use; wherein the conduit includes a chamber having a valve comprising an annular valve seat and a moveable member located in the chamber arranged to engage the valve seat to close the valve when the pourer is inverted; and wherein the outlet of the conduit is located outwardly of the sealing means and further comprises a circular baffle having an external surface generally co-planar with the outlet of the conduit; wherein the baffle includes a circumferential aperture to permit a flow of air from the exterior to the air vent; and wherein the air vent inlet is located in or adjacent the sealing means so that the air vent inlet is in spaced relation to the outlet of the conduit.
A viral vector comprising at least one encoded genetic element, for use in treating cancer or an infectious disease, wherein the at least one encoded genetic element comprises a small RNA that, when expressed, targets and reduces expression levels of farnesyl diphosphate synthase (FDPS), wherein the small RNA is 200 nucleotides or less in length and possesses a silencing or interference function.
An implantable medical device comprising: an implantable medical housing; a processing circuit within the implantable medical housing; a first coil (114A, 214A, 414A, 614A) configured to wirelessly receive a signal and secured to the implantable medical device; a second coil (114B, 214B, 414B, 614B) configured to wirelessly receive the signal and secured to the implantable medical device; switching circuitry within the housing, characterized in that the processing circuit is configured to cause the switching circuitry to selectably couple the first coil (114A, 214A, 414A, 614A) to the second coil (114B, 214B, 414B, 614B) in either series such that the first coil (114A, 214A, 414A, 614A) is coiled in a same direction as the second coil (114B, 214B, 414B, 614B) or in series opposition such that the first coil (114A, 214A, 414A, 614A) is coiled in the opposite direction as the second coil (114B, 214B, 414B, 614B);, wherein the implantable medical device further comprises: a sensor for sensing a parameter that indicates a magnitude of an induced current that is induced over the first coil (114A, 214A, 414A, 614A) and the second coil (114B, 214B, 414B, 614B) as a result of receiving the signal, wherein the parameter is at least one of temperature, voltage, or current. an implantable medical housing; a processing circuit within the implantable medical housing; a first coil (114A, 214A, 414A, 614A) configured to wirelessly receive a signal and secured to the implantable medical device; a second coil (114B, 214B, 414B, 614B) configured to wirelessly receive the signal and secured to the implantable medical device; switching circuitry within the housing, characterized in that the processing circuit is configured to cause the switching circuitry to selectably couple the first coil (114A, 214A, 414A, 614A) to the second coil (114B, 214B, 414B, 614B) in either series such that the first coil (114A, 214A, 414A, 614A) is coiled in a same direction as the second coil (114B, 214B, 414B, 614B) or in series opposition such that the first coil (114A, 214A, 414A, 614A) is coiled in the opposite direction as the second coil (114B, 214B, 414B, 614B);, wherein the implantable medical device further comprises: a sensor for sensing a parameter that indicates a magnitude of an induced current that is induced over the first coil (114A, 214A, 414A, 614A) and the second coil (114B, 214B, 414B, 614B) as a result of receiving the signal, wherein the parameter is at least one of temperature, voltage, or current.
A permission setting method, comprising: displaying a first control on a desktop; receiving a first input to the first control and a first icon by a user; and setting a first function permission for a first application program in response to the first input, wherein the first application program is an application program indicated by the first icon, and the first function permission is a function permission in a plurality of function permissions associated with the first control, characterized in that the first input is an input of dragging the first icon to an area in which the first control is located; and before the receiving a first input to the first control and a first icon by a user, the method further comprises: receiving a second input to the first control by the user; displaying M options on the desktop in response to the second input, wherein each option is used for indicating at least one function permission respectively, and M is a positive integer; receiving a third input to a first option in the M options by the user; and canceling display of the M options in response to the third input, and displaying a first identifier in the area in which the first control is located, wherein the first identifier and the first option are both used for indicating the first function permission. displaying a first control on a desktop; receiving a first input to the first control and a first icon by a user; and setting a first function permission for a first application program in response to the first input, wherein the first application program is an application program indicated by the first icon, and the first function permission is a function permission in a plurality of function permissions associated with the first control, characterized in that the first input is an input of dragging the first icon to an area in which the first control is located; and before the receiving a first input to the first control and a first icon by a user, the method further comprises: receiving a second input to the first control by the user; displaying M options on the desktop in response to the second input, wherein each option is used for indicating at least one function permission respectively, and M is a positive integer; receiving a third input to a first option in the M options by the user; and canceling display of the M options in response to the third input, and displaying a first identifier in the area in which the first control is located, wherein the first identifier and the first option are both used for indicating the first function permission. receiving a second input to the first control by the user; displaying M options on the desktop in response to the second input, wherein each option is used for indicating at least one function permission respectively, and M is a positive integer; receiving a third input to a first option in the M options by the user; and canceling display of the M options in response to the third input, and displaying a first identifier in the area in which the first control is located, wherein the first identifier and the first option are both used for indicating the first function permission.
A wind turbine blade for a wind turbine, comprising a blade shell having an inner surface, a shear web having an end and a male portion protruding from the end, and a spar cap having a female portion receiving the male portion of the shear web, wherein an end face of the male portion is attached to the inner surface of the blade shell, wherein the spar cap comprises a base attached to the inner surface of the blade shell and walls (26, 27) protruding from the base sandwiching the shear web therebetween, and wherein the female portion is formed at the base of the spar cap.
A method for reducing the weight of a riser pipe for offshore well drilling, the riser comprising a main tube extending well up to a floating support, at least one auxiliary line being arranged parallel to the main tube, the auxiliary line comprising tubular steel sections (7a, 7b) assembled end to end, the ends of said tubular sections (7a, 7b) being respectively provided with female connector parts (23, 24), each one of said sections being connected to the adjacent section by means of an end part, said end part being mounted integral on the end of a section in said female connector part and mounted with a sliding fit in the end of another section in said female connector part, seal means being arranged between the end part and the section at the sliding fit, characterized in that a material having an elastic limit at least 25 % higher than the elastic limit of the steel of the tubular sections is selected to manufacture said end part, and in that end part and the end of said sections are dimensioned by taking account of the elastic limit of said material so as to reduce the outer section of the end part at seal means.
A system for controlling a rollback speed of a motor vehicle having wheel brakes (120, 122, 124, 126), the system comprising: a) a driving direction arbitration module configured to receive a first signal and output an actual direction signal; b) a start/stop arbitration module configured to receive the actual direction signal and a gear shift signal, and generate a hill rollback control enable signal; c) a vehicle speed limit module configured to a receive a terrain grade angle signal, the vehicle speed limit module configured to set a target rollback speed signal to c1) a first predetermined value if a value of the terrain grade angle signal is equal to or below a grade threshold, and c2) a second predetermined value if the value of the terrain grade angle signal is above the grade threshold, d) a vehicle brake control module configured to d1) receive the hill rollback control enable signal, the target rollback speed signal, and a vehicle speed signal, and d2) determine a brake control signal to apply the wheel brakes (120, 122, 124, 126) to maintain the rollback speed of the vehicle at a value of the target rollback speed signal. a) a driving direction arbitration module configured to receive a first signal and output an actual direction signal; b) a start/stop arbitration module configured to receive the actual direction signal and a gear shift signal, and generate a hill rollback control enable signal; c) a vehicle speed limit module configured to a receive a terrain grade angle signal, the vehicle speed limit module configured to set a target rollback speed signal to c1) a first predetermined value if a value of the terrain grade angle signal is equal to or below a grade threshold, and c2) a second predetermined value if the value of the terrain grade angle signal is above the grade threshold, c1) a first predetermined value if a value of the terrain grade angle signal is equal to or below a grade threshold, and c2) a second predetermined value if the value of the terrain grade angle signal is above the grade threshold, d) a vehicle brake control module configured to d1) receive the hill rollback control enable signal, the target rollback speed signal, and a vehicle speed signal, and d2) determine a brake control signal to apply the wheel brakes (120, 122, 124, 126) to maintain the rollback speed of the vehicle at a value of the target rollback speed signal. d1) receive the hill rollback control enable signal, the target rollback speed signal, and a vehicle speed signal, and d2) determine a brake control signal to apply the wheel brakes (120, 122, 124, 126) to maintain the rollback speed of the vehicle at a value of the target rollback speed signal.
Valve, in particular heat exchanger valve comprising a housing having a first port, a second port, a flow path between said first port and said second port, valve means (5, 6) being located in said flow path and including a valve element and a valve seat, and reversing means reversing a flow direction through said valve means (5, 6), characterized in that a dynamic unit is arranged in said flow path, said dynamic unit keeping constant a pressure drop over said valve means (5, 6), wherein said reversing means change a position of said dynamic unit when reversing said flow direction.
A method performed by a target radio network node supporting a handover from a source radio network node, said target network node comprises a table having preferred relations between a specific Quality of Service Class Identifier, QCI and a specific Radio Link Control, RLC configuration at least comprising a RLC Mode, the method comprising the steps of: - receiving a handover request from the source radio network node comprising at least a Quality of Service information element including at least a QCI parameter, and a RLC Configuration information element including at least a RLC Mode parameter CHARACTERIZED by, - checking if the received RLC Mode corresponds to the RLC Mode for the preferred RLC configuration in said first table for the received QCI, - if said check fails mapping said preferred RLC configuration to an alternative RLC configuration having the same RLC Mode as the received RLC Mode and being associated with said received QCI, and - sending a handover request acknowledgement to said source radio network node. - receiving a handover request from the source radio network node comprising at least a Quality of Service information element including at least a QCI parameter, and a RLC Configuration information element including at least a RLC Mode parameter CHARACTERIZED by, - checking if the received RLC Mode corresponds to the RLC Mode for the preferred RLC configuration in said first table for the received QCI, - if said check fails mapping said preferred RLC configuration to an alternative RLC configuration having the same RLC Mode as the received RLC Mode and being associated with said received QCI, and - sending a handover request acknowledgement to said source radio network node.
A reel assembly of an agricultural header, comprising: a first arm configured to support a reel of the reel assembly; a second arm configured to support the reel of the reel assembly; and characterized by a first pivot joint configured to pivotally couple the first arm to a frame of the agricultural header, wherein the first pivot joint is configured to enable the first arm to pivot about a first local lateral axis of the agricultural header and about a longitudinal axis of the agricultural header relative to the frame; a second pivot joint configured to pivotally couple the second arm to the frame, wherein the second pivot joint is configured to enable the second arm to pivot about a second local lateral axis of the agricultural header relative to the frame and to substantially block pivoting of the second arm about the longitudinal axis relative to the frame. a first arm configured to support a reel of the reel assembly; a second arm configured to support the reel of the reel assembly; and characterized by a first pivot joint configured to pivotally couple the first arm to a frame of the agricultural header, wherein the first pivot joint is configured to enable the first arm to pivot about a first local lateral axis of the agricultural header and about a longitudinal axis of the agricultural header relative to the frame; a second pivot joint configured to pivotally couple the second arm to the frame, wherein the second pivot joint is configured to enable the second arm to pivot about a second local lateral axis of the agricultural header relative to the frame and to substantially block pivoting of the second arm about the longitudinal axis relative to the frame.
A headlamp control system comprising at least two lamp units (22R, 22L) to be respectively disposed in left and right front portions of a vehicle, each lamp unit (22R, 22L) including a light source (51, 51A) having at least one light emitting element (51a to 51d, 51e), and a lens configured to form an illumination region (Ae) ahead of the vehicle by allowing light emitted from the light source to pass therethrough; a first driving mechanism configured to move the illumination region in a right and left direction; a camera configured to capture ahead of the vehicle and; a detection section configured to detect a person existing ahead of the vehicle based on an image captured by the camera; characterized by a control section configured to control the first driving mechanism so that the illumination region includes the person detected by the detection section, and to form a non-illumination region (Af) in the illumination region (Ae) so that at least a head of the person is included in the non-illumination region (Af), wherein the non-illumination region (Af) has a lower end (Ag) set at a predetermined height for a certain distance from the vehicle, and wherein the lamp unit (22R, 22L) to be disposed in the left front portions of the vehicle and the lamp unit (22R, 22L) to be disposed in the right front portion of the vehicle are configured such that the heights of the lower ends (Ag) of the respective non-illumination regions (Af) are different from each other. each lamp unit (22R, 22L) including a light source (51, 51A) having at least one light emitting element (51a to 51d, 51e), and a lens configured to form an illumination region (Ae) ahead of the vehicle by allowing light emitted from the light source to pass therethrough;
A method for wireless communication at a second user equipment, UE, comprising: receiving a configuration identifying resources for transmission of a cross-link interference reference signal, CLI-RS, by a first UE, the resources being based on a synchronization signal transmitted by a base station serving the first or second UE; and receiving, from the first UE, the CLI-RS in the resources according to the configuration. receiving a configuration identifying resources for transmission of a cross-link interference reference signal, CLI-RS, by a first UE, the resources being based on a synchronization signal transmitted by a base station serving the first or second UE; and receiving, from the first UE, the CLI-RS in the resources according to the configuration.
A positioning mechanism for aligning an optical device and an image sensor, comprising: a base operable with a support for an image sensor; a tube operable with an optical device; and an adjuster disposed between the base and the tube, wherein the adjuster is positionable relative to the base in a translational degree of freedom and two rotational degrees of freedom, and characterized in that at an interface of the adjuster and the tube, the tube is positionable relative to the adjuster in two translational degrees of freedom, and a rotational degree of freedom. a base operable with a support for an image sensor; a tube operable with an optical device; and an adjuster disposed between the base and the tube, wherein the adjuster is positionable relative to the base in a translational degree of freedom and two rotational degrees of freedom, and characterized in that at an interface of the adjuster and the tube, the tube is positionable relative to the adjuster in two translational degrees of freedom, and a rotational degree of freedom.
A method of improving a measurement of the flow velocity of blood in a blood vessel of a subject, the method comprising: using an ultrasound transducer to emit an ultrasound beam to measure flow velocity at a plurality of depths in a part of a body of the subject; _ forming by a control unit a respective spatial time velocity profile (36-1, 36-2, 36-3) for the part of the body from the measured flow velocity for each of the plurality of depths, each spatial time velocity profile being formed from the measured flow velocity at the respective depth; and analyzing by a control unit one or more of the plurality of spatial time velocity profiles to determine a correction to the angle of the ultrasound beam with respect to an axis of the blood vessel of the subject in order to adjust the positioning of the of the ultrasound transducer, the correction being based on a difference between the position of a peak in the spatial time velocity profile and the center of the spatial time velocity profile, corresponding to the intersection of the axis of the ultrasound beam with the spatial time velocity profile. using an ultrasound transducer to emit an ultrasound beam to measure flow velocity at a plurality of depths in a part of a body of the subject; _ forming by a control unit a respective spatial time velocity profile (36-1, 36-2, 36-3) for the part of the body from the measured flow velocity for each of the plurality of depths, each spatial time velocity profile being formed from the measured flow velocity at the respective depth; and analyzing by a control unit one or more of the plurality of spatial time velocity profiles to determine a correction to the angle of the ultrasound beam with respect to an axis of the blood vessel of the subject in order to adjust the positioning of the of the ultrasound transducer, the correction being based on a difference between the position of a peak in the spatial time velocity profile and the center of the spatial time velocity profile, corresponding to the intersection of the axis of the ultrasound beam with the spatial time velocity profile.
A battery cell, comprising: a plurality of layers, at least two of the plurality of layers having varying sizes; a pouch enclosing the plurality of layers; first and second battery terminals extending through the pouch; wherein each of the at least two of the plurality of layers is aligned with one another, thereby defining a first and second common, straight edge within the pouch; the first and second common, straight edges abut one another; and the first and second battery terminals extend outward from the first common, straight edge; wherein at least one layer of the plurality of layers has a hollow interior portion. a plurality of layers, at least two of the plurality of layers having varying sizes; a pouch enclosing the plurality of layers; first and second battery terminals extending through the pouch; wherein each of the at least two of the plurality of layers is aligned with one another, thereby defining a first and second common, straight edge within the pouch; the first and second common, straight edges abut one another; and the first and second battery terminals extend outward from the first common, straight edge; wherein at least one layer of the plurality of layers has a hollow interior portion.
Cleaning apparatus, comprising - an apparatus body; - a lid; - a pivot bearing device via which the lid is pivotably mounted to the apparatus body; and - a support device via which the lid is supportable on the apparatus body in a defined open pivotal position; wherein the support device comprises at least one support element, characterized in that the support device comprises a track guide device associated with the at least one support element, wherein the at least one support element comprises an element guided on the track guide device; in that the track guide device comprises a first track and a second track for the guided element and, in a transition area, the second track at its inlet end adjoins the first track and the second track at its outlet end transitions into the first track; and in that arranged in the transition area is a lock which allows entry of the guided element from the first track into the second track at the inlet end of the second track, and blocks entry from the first track into the second track at the outlet end of the second track, and allows entry into the first track from the second track at the outlet end of the second track. - an apparatus body; - a lid; - a pivot bearing device via which the lid is pivotably mounted to the apparatus body; and - a support device via which the lid is supportable on the apparatus body in a defined open pivotal position;