mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment for beamformed joint communication between a base station and multiple user equipments in a user-equipment-coordination set , the method comprising: receiving an indication to coordinate beam sweeping with the user-equipment-coordination set ; in response to receiving the indication to coordinate beam sweeping, directing , over a local wireless network connection , each user equipment in the user-equipment-coordination set to perform a beam-training procedure that includes receiving, from the base station , a set of downlink beam transmissions that cover a spatial area according to pre-specified time intervals and directions; forwarding , to the base station and over a wireless network connection , beam report information that indicates beam quality information based on the beam-training procedure; in response to forwarding the beam report information, receiving , from the base station and over the wireless network connection , an indication of one or more beam identities and one or more assigned time slots; and directing at least two user equipments in the user-equipment-coordination set to use specific beams indicated by the one or more beam identities at specific time slots indicated by the one or more assigned time slots by transmitting, over the local wireless network connection , a respective beam identity of the one or more beam identities and a respective time slot of the one or more assigned time slots to each user equipment of the at least two user equipments. receiving an indication to coordinate beam sweeping with the user-equipment-coordination set ; in response to receiving the indication to coordinate beam sweeping, directing , over a local wireless network connection , each user equipment in the user-equipment-coordination set to perform a beam-training procedure that includes receiving, from the base station , a set of downlink beam transmissions that cover a spatial area according to pre-specified time intervals and directions; forwarding , to the base station and over a wireless network connection , beam report information that indicates beam quality information based on the beam-training procedure; in response to forwarding the beam report information, receiving , from the base station and over the wireless network connection , an indication of one or more beam identities and one or more assigned time slots; and directing at least two user equipments in the user-equipment-coordination set to use specific beams indicated by the one or more beam identities at specific time slots indicated by the one or more assigned time slots by transmitting, over the local wireless network connection , a respective beam identity of the one or more beam identities and a respective time slot of the one or more assigned time slots to each user equipment of the at least two user equipments.
A vehicle lamp , with a lamp interior that is at least partly enclosed by a lamp housing with a light opening and a light lens at least partly closing the light opening, which lamp interior accommodates a reflector as well as at least one first light source emitting light (L1) of a first wavelength range and at least one second light source emitting light (L2) of a second wavelength range, wherein: - the reflector is at least partly provided with a wavelength-selective coating , which is designed to be reflective for the light (L1) of the first wavelength range and transparent for the light (L2) of the second wavelength range, - the first light source irradiates its light (L1) into the reflector , which deflects the light (L1) of the first light source towards the light lens , - the second light source is arranged behind the reflector, as seen looking through the light lens to the reflector , and - the second light source radiates its light (L2) towards the light lens at least through the part of the reflector that is provided with the wavelength-selective coating , characterised in that a part of the reflector comprising a continuous partial surface of the reflector is provided with the wavelength-selective coating and/or a part of the reflector comprising a plurality of independent partial surfaces of the reflector is provided with the wavelength-selective coating, wherein the remaining part of the reflector that is designed free from the wavelength-selective coating is provided with a reflective coating. - the reflector is at least partly provided with a wavelength-selective coating , which is designed to be reflective for the light (L1) of the first wavelength range and transparent for the light (L2) of the second wavelength range, - the first light source irradiates its light (L1) into the reflector , which deflects the light (L1) of the first light source towards the light lens , - the second light source is arranged behind the reflector, as seen looking through the light lens to the reflector , and - the second light source radiates its light (L2) towards the light lens at least through the part of the reflector that is provided with the wavelength-selective coating ,
A pen or autoinjector delivery device containing a pharmaceutical formulation, wherein the pharmaceutical formulation comprises: (i) a human antibody that specifically binds to human interleukin-6 receptor (hIL-6R), wherein the antibody comprises a heavy chain variable region comprising the amino acid sequence of SEQ ID NO:18 and a light chain variable region comprising the amino acid sequence of SEQ ID NO:26; (ii) histidine at a concentration of from 10 mM to 25 mM; (iii) arginine at a concentration of from 25 mM to 50 mM; (iv) sucrose in an amount of from 5% to 10% w/v; and (v) polysorbate 20 in an amount of from 0.1% to 0.2% w/v. (i) a human antibody that specifically binds to human interleukin-6 receptor (hIL-6R), wherein the antibody comprises a heavy chain variable region comprising the amino acid sequence of SEQ ID NO:18 and a light chain variable region comprising the amino acid sequence of SEQ ID NO:26; (ii) histidine at a concentration of from 10 mM to 25 mM; (iii) arginine at a concentration of from 25 mM to 50 mM; (iv) sucrose in an amount of from 5% to 10% w/v; and (v) polysorbate 20 in an amount of from 0.1% to 0.2% w/v.
A stator assembly for an axial turbomachine , in particular for a compressor (4; 6) of a turbomachine , the assembly comprising: - a shroud , possibly an inner shroud , which is axially divided into two parts (60; 62); - a pocket formed in the shroud ; - a bearing located in the pocket ; and - an orientable vane pivotably mounted in the bearing about a pivot axis ; the shroud comprising an axial separating interface of the parts (60; 62), the pivot axis of the orientable vane being axially at a distance of the interface of axial separation , characterized in that the bearing comprises a through opening and axially offset. - a shroud , possibly an inner shroud , which is axially divided into two parts (60; 62); - a pocket formed in the shroud ; - a bearing located in the pocket ; and - an orientable vane pivotably mounted in the bearing about a pivot axis ;
Mammography apparatus arrangement, comprising an arm part rotatable by an actuator , a radiation source arranged in connection with the arm part , collimation means for limiting the radiation produced by the radiation source to form a beam and directing the beam to the object to be imaged, a full-field imaging sensor , an upper compression plate arranged in the area between the radiation source and the full-field imaging sensor , a connector structure for positioning the upper compression plate in the area between the radiation source and the full-field imaging sensor , an automatic exposure system, a control system and a control panel or other user interface functionally connected to said control system, wherein the connector structure is arranged to enable at least two different upper compression plates to be connected to the mammography apparatus arrangement, wherein a means is arranged in functional connection with the connector structure for detecting a connection of at least one upper compression plate of predetermined type to the connector structure , wherein the at least one upper compression plate has a width substantially equal to the width of the full-field imaging sensor , and the arrangement is configured to carry out a combination of actions in response to a control signal which at least partly results from detecting the connection of the upper compression plate of predetermined type to the connector structure , wherein the combination of actions comprises, i) operating the actuator rotating the arm part so as to cause the arm part to assume an oblique imaging position, ii) positioning of the collimation means in such a way that they limit the beam to a size to cover an area smaller than the surface area of the full-field imaging sensor and of the upper compression plate substantially equal in width with it, and in such a way that they direct the beam so that the center axis of the beam does not position at the center of the full-field imaging sensor and correspondingly of the upper compression plate , and iii) adapting the automatic exposure system to receive and/or read a signal from the area smaller than the surface area of the full-field imaging sensor whereto the beam is directed. i) operating the actuator rotating the arm part so as to cause the arm part to assume an oblique imaging position, ii) positioning of the collimation means in such a way that they limit the beam to a size to cover an area smaller than the surface area of the full-field imaging sensor and of the upper compression plate substantially equal in width with it, and in such a way that they direct the beam so that the center axis of the beam does not position at the center of the full-field imaging sensor and correspondingly of the upper compression plate , and iii) adapting the automatic exposure system to receive and/or read a signal from the area smaller than the surface area of the full-field imaging sensor whereto the beam is directed.
A method of manufacturing an airplane frame , wherein said airplane frame has an arc-shaped structure and comprises flanged areas positioned at two side edges in the lateral direction, bent areas located adjacent to said flanged areas , and a web area extending between said bent areas , wherein said bent areas (13, have an arc-shaped structure, and said web area is an annular sector in shape, wherein said method comprises the steps of: according to the size of the airplane frame , braiding a first fiber body (S1, S2) on a braiding mandrel in an extension direction of said airplane frame to form a cylindrical braid; developing said cylindrical braid to form a planar braid; preimpregnating said planar braid with resin to form a prepreg; cutting said prepreg according to the size of said airplane frame ; and laying and curing the cut prepreg to form said airplane frame , characterized in that said web area is formed by using a biaxial braiding method, and in that any one of said two flanged areas is formed by using a triaxial braiding method. according to the size of the airplane frame , braiding a first fiber body (S1, S2) on a braiding mandrel in an extension direction of said airplane frame to form a cylindrical braid; developing said cylindrical braid to form a planar braid; preimpregnating said planar braid with resin to form a prepreg; cutting said prepreg according to the size of said airplane frame ; and laying and curing the cut prepreg to form said airplane frame , characterized in that said web area is formed by using a biaxial braiding method, and in that any one of said two flanged areas is formed by using a triaxial braiding method.
A metal complex of Formula I: wherein M is Zr, Hf, or Ti; each Het is independently a heterocyclic ring that includes N, O and/or S; each L is independently a bridging group (CR 2 ) m where m is 0, 1, 2, 3, or 4; O; S; or NR-, where each R is independently selected from the group including hydrogen, alkyls, alkenyls, alkynyls, cycloalkyls, aryls, acyls, aroyls, alkoxys, aryloxys, alkylthiols, dialkylamines, alkylamidos, alkoxycarbonyls, aryloxycarbonyls, carbomoyls, alkyl- and dialkyl-carbamoyls, acyloxys, acylaminos, aroylaminos, aromatic rings, fused aromatic rings and combinations thereof; each X is independently CI, Br, I, or alkyl; each R 1 is independently selected from the group including hydrogen, alkyls, alkenyls, alkynyls, cycloalkyls, aryls, acyls, aroyls, alkoxys, aryloxys, alkylthiols, dialkylamines, alkylamidos, alkoxycarbonyls, aryloxycarbonyls, carbomoyls, alkyl- and dialkyl-carbamoyls, acyloxys, acylaminos, aroylaminos, aromatic rings, fused aromatic rings, and combinations thereof; and each n is independently an integer having a value of one to five.
Surgical system for cutting an anatomical structure (F, T) of a patient according to at least one target plane defined in a coordinate system of the anatomical structure, a tracker being attached to said anatomical structure, comprising: (i) a robotic device comprising: - a cutting tool, - an actuation unit having a serial architecture comprising from three to five motorized degrees of freedom, at least two of said motorized degrees of freedom being rotational degrees of freedom about respective rotation axes, the angles between said axes being 90° ± 30°, configured for adjusting a position and orientation of the cutting tool relative to each target plane, - a planar mechanism connecting the last segment of the actuation unit to the cutting tool, the planar mechanism being configured to constrain the cutting tool to move only inside a plane, with at least two degrees of freedom; (ii) a passive articulated lockable holding arm supporting the actuation unit ; (iii) a tracking unit configured to determine in real time the pose of a cutting plane with respect to the coordinate system of the anatomical structure, (iv) a control unit configured to determine the pose of the cutting plane with respect to each target plane and to control the actuation unit so as to bring the cutting plane into alignment with said target plane. (i) a robotic device comprising: - a cutting tool, - an actuation unit having a serial architecture comprising from three to five motorized degrees of freedom, at least two of said motorized degrees of freedom being rotational degrees of freedom about respective rotation axes, the angles between said axes being 90° ± 30°, configured for adjusting a position and orientation of the cutting tool relative to each target plane, - a planar mechanism connecting the last segment of the actuation unit to the cutting tool, the planar mechanism being configured to constrain the cutting tool to move only inside a plane, with at least two degrees of freedom; - a cutting tool, - an actuation unit having a serial architecture comprising from three to five motorized degrees of freedom, at least two of said motorized degrees of freedom being rotational degrees of freedom about respective rotation axes, the angles between said axes being 90° ± 30°, configured for adjusting a position and orientation of the cutting tool relative to each target plane, - a planar mechanism connecting the last segment of the actuation unit to the cutting tool, the planar mechanism being configured to constrain the cutting tool to move only inside a plane, with at least two degrees of freedom; (ii) a passive articulated lockable holding arm supporting the actuation unit ; (iii) a tracking unit configured to determine in real time the pose of a cutting plane with respect to the coordinate system of the anatomical structure, (iv) a control unit configured to determine the pose of the cutting plane with respect to each target plane and to control the actuation unit so as to bring the cutting plane into alignment with said target plane.
An aluminum alloy comprising, in mass percentages: - 3 to 6% titanium, - 1.5 to 3% manganese - 1 to 2% iron, - 1 to 2% chromium, - 0.5 to 1.5% vanadium, - 0.5 to 1.5% nickel, - 0.2 to 1% zirconium, - 0 to 0.5% cerium, - 0 to 0.5% lanthanum, the remainder consisting of aluminum and unavoidable impurities. - 3 to 6% titanium, - 1.5 to 3% manganese - 1 to 2% iron, - 1 to 2% chromium, - 0.5 to 1.5% vanadium, - 0.5 to 1.5% nickel, - 0.2 to 1% zirconium, - 0 to 0.5% cerium, - 0 to 0.5% lanthanum,
A laundry washing method for a washing machine that includes a tub and a drum within the tub , said method comprising: a rinse cycle followed by a spin cycle ; the spin cycle including: - a water-draining process of draining wash water from the tub prior to initiating a main spinning process ; - a subsequent laundry-balancing process of supplying wash water into the drum at least in part, at the same time redistributing the laundry in the drum by repeatedly accelerating and decelerating the rotation of the drum ; and - a subsequent main spinning process of spinning the drum at a relatively high speed thereby extracting wash water from the laundry. a rinse cycle followed by a spin cycle ; the spin cycle including: - a water-draining process of draining wash water from the tub prior to initiating a main spinning process ; - a subsequent laundry-balancing process of supplying wash water into the drum at least in part, at the same time redistributing the laundry in the drum by repeatedly accelerating and decelerating the rotation of the drum ; and - a subsequent main spinning process of spinning the drum at a relatively high speed thereby extracting wash water from the laundry. - a water-draining process of draining wash water from the tub prior to initiating a main spinning process ; - a subsequent laundry-balancing process of supplying wash water into the drum at least in part, at the same time redistributing the laundry in the drum by repeatedly accelerating and decelerating the rotation of the drum ; and - a subsequent main spinning process of spinning the drum at a relatively high speed thereby extracting wash water from the laundry.
A bicycle frame comprising: a front triangle that includes a top tube , a down tube , and a seat tube , wherein a bottom side of the top tube includes a cavity ; a seat stay assembly that includes a first seat stay , and a second seat stay , characterized in that the seat stay assembly further includes a seat stay yoke that integrally connects the first seat stay and the second seat stay , wherein the seat stay yoke includes a yoke cavity, and wherein the seat stay yoke is configured to at least partially fit within the cavity on the bottom side of the top tube; and the frame further comprises an inline shock assembly that includes a stanchion and a shock , wherein at least a portion of the stanchion is configured to fit within the yoke cavity of the seat stay yoke. a front triangle that includes a top tube , a down tube , and a seat tube , wherein a bottom side of the top tube includes a cavity ; a seat stay assembly that includes a first seat stay , and a second seat stay , characterized in that the seat stay assembly further includes a seat stay yoke that integrally connects the first seat stay and the second seat stay , wherein the seat stay yoke includes a yoke cavity, and wherein the seat stay yoke is configured to at least partially fit within the cavity on the bottom side of the top tube; and the frame further comprises an inline shock assembly that includes a stanchion and a shock , wherein at least a portion of the stanchion is configured to fit within the yoke cavity of the seat stay yoke.
A method, the method being executed by an apparatus and comprising: identifying a ranking criterion associated with selection of a cell in a wireless communication system; determining whether the cell is known to belong to an associated Closed Subscriber Group, CSG, whitelist; and selecting at least one of an offset or a hysteresis parameter to be applied to the ranking criterion based at least in part on a result of the determining, wherein a first ranking offset or hysteresis parameter is selected upon determining that the cell is known to belong to the associated CSG whitelist, and a second ranking offset or hysteresis parameter is selected upon determining that the cell is not known to belong to the associated CSG whitelist, and wherein the selecting comprises: determining whether one or more CSG-specific offsets are available; selecting , as said first or second ranking offset, a CSG-specific offset upon determining that one or more CSG-specific offsets are available; and selecting a system-wide offset upon determining that one or more CSG-specific offsets are not available. identifying a ranking criterion associated with selection of a cell in a wireless communication system; determining whether the cell is known to belong to an associated Closed Subscriber Group, CSG, whitelist; and selecting at least one of an offset or a hysteresis parameter to be applied to the ranking criterion based at least in part on a result of the determining, wherein a first ranking offset or hysteresis parameter is selected upon determining that the cell is known to belong to the associated CSG whitelist, and a second ranking offset or hysteresis parameter is selected upon determining that the cell is not known to belong to the associated CSG whitelist, and wherein the selecting comprises: determining whether one or more CSG-specific offsets are available; selecting , as said first or second ranking offset, a CSG-specific offset upon determining that one or more CSG-specific offsets are available; and selecting a system-wide offset upon determining that one or more CSG-specific offsets are not available. determining whether one or more CSG-specific offsets are available; selecting , as said first or second ranking offset, a CSG-specific offset upon determining that one or more CSG-specific offsets are available; and selecting a system-wide offset upon determining that one or more CSG-specific offsets are not available.
A method for driving a screw to a certain depth by using a screw depth adjuster comprising the steps of: (a) rotating a driving member on a threaded rod to move forward/backward to the position required for pushing a flared sleeve to move forward/backward on the threaded rod synchronously; (b) pushing a control member into a second passage of the driving member for positioning the driving member and mounting a polygonal stopper of the control member into the polygonal second passage because that a cross section of the polygonal second passage and shape of the polygonal second passage of the adjustment portion matches shape of the polygonal stopper of the control member ; thereby the driving member is locked by the control member , unable to be moved and rotated and so is the flared sleeve ; thus the screw is driven to the certain depth and unable to be moved any further. (a) rotating a driving member on a threaded rod to move forward/backward to the position required for pushing a flared sleeve to move forward/backward on the threaded rod synchronously; (b) pushing a control member into a second passage of the driving member for positioning the driving member and mounting a polygonal stopper of the control member into the polygonal second passage because that a cross section of the polygonal second passage and shape of the polygonal second passage of the adjustment portion matches shape of the polygonal stopper of the control member ; thereby the driving member is locked by the control member , unable to be moved and rotated and so is the flared sleeve ; thus the screw is driven to the certain depth and unable to be moved any further.