mhurhangee/patent-ind-claim-en huggingface dataset:
A method of acquiring a high frequency carrier performed by a mobile station, MS , communicating with a base station, BS , using a first carrier and a second carrier in a communication network, the method comprising: receiving, on the first carrier from the BS , information about one or more synchronization signals which are transmitted by the BS on the second carrier, wherein the information about the one or more synchronization signals comprises information indicating one or more time intervals for receiving the one or more synchronization signals on the second carrier by the MS and information indicating one or more beams through which the one or more synchronization signals are respectively transmitted on the second carrier; determining the one or more beams to be monitored by the MS among a plurality of beams transmitted on the second carrier based on the information about the one or more synchronization signals; determining the one or more time intervals in which the one or more beams are being transmitted on the second carrier based on the information about the one or more synchronization signals; and acquiring a synchronization signal by monitoring the determined one or more beams transmitted on the second carrier in the determined one or more time intervals, wherein the first carrier corresponds to a low frequency carrier in a cellular band and the second carrier corresponds to the high frequency carrier in a mmWave band. receiving, on the first carrier from the BS , information about one or more synchronization signals which are transmitted by the BS on the second carrier, wherein the information about the one or more synchronization signals comprises information indicating one or more time intervals for receiving the one or more synchronization signals on the second carrier by the MS and information indicating one or more beams through which the one or more synchronization signals are respectively transmitted on the second carrier; determining the one or more beams to be monitored by the MS among a plurality of beams transmitted on the second carrier based on the information about the one or more synchronization signals; determining the one or more time intervals in which the one or more beams are being transmitted on the second carrier based on the information about the one or more synchronization signals; and acquiring a synchronization signal by monitoring the determined one or more beams transmitted on the second carrier in the determined one or more time intervals, wherein the first carrier corresponds to a low frequency carrier in a cellular band and the second carrier corresponds to the high frequency carrier in a mmWave band.
A transport device comprising a driverless transport vehicle for transporting one or more handling devices that are each configured to handle a pallet and/or a workpiece on a machine tool that is configured to machine said workpiece and is set up on a base surface, wherein said driverless transport vehicle for positioning said one or more handling devices can be moved with respect to said machine tool on said base surface, in particular within a region in front of and/or next to said machine tool and/or in front of and/or next to a work space of said machine tool , characterized in that said driverless transport vehicle is configured to be moved freely on a plane, independently of a type of rail system or the like, for guiding said transport vehicle, and said transport device comprises, as a handling device, a pallet changer that is coupled to said driverless transport vehicle and configured to insert and exchange pallets for receiving a workpiece in the work space and/or at a setup station of said machine tool after said driverless transport vehicle with the coupled pallet changer has been moved and positioned within a region in front of and/or next to the work space of said machine tool .
A burner head for a fuel manifold , the burner head comprising: a mains fuel injector ; a pilot fuel injector ; a fuel source ; a first isolation valve connected to the fuel source; a staging valve , the staging valve being connected to the first isolation valve , and the staging valve having a mains fuel conduit connected to the mains fuel injector and a pilot fuel conduit connected to the pilot fuel injector ; and a second isolation valve , the second isolation valve being in series between the first isolation valve and the mains fuel conduit of the staging valve ; wherein the first isolation valve and the staging valve are connected in series, such that fuel from the fuel source must pass through the first isolation valve before arriving at the staging valve ; the burner head being characterised in that the force required to open the first isolation valve is different to the force required to open the second isolation valve . a mains fuel injector ; a pilot fuel injector ; a fuel source ; a first isolation valve connected to the fuel source; a staging valve , the staging valve being connected to the first isolation valve , and the staging valve having a mains fuel conduit connected to the mains fuel injector and a pilot fuel conduit connected to the pilot fuel injector ; and a second isolation valve , the second isolation valve being in series between the first isolation valve and the mains fuel conduit of the staging valve ; wherein the first isolation valve and the staging valve are connected in series, such that fuel from the fuel source must pass through the first isolation valve before arriving at the staging valve ; the burner head being characterised in that the force required to open the first isolation valve is different to the force required to open the second isolation valve .
A respiratory motion determination apparatus for determining respiratory motion of a living being , the respiratory motion determination apparatus comprising: - a raw data providing unit for providing raw data assigned to different times, wherein the raw data are indicative of a structure, which is influenced by cardiac motion and by respiratory motion of the living being and which is a structure of the living being, wherein the raw data are usable for reconstructing an image of the structure, - a reconstruction unit for reconstructing intermediate images of the structure from the provided raw data, - a structure detection unit for detecting the structure in the reconstructed intermediate images, - a respiratory motion determination unit for determining the respiratory motion of the living being based on the structure detected in the reconstructed intermediate images, characterized in that the raw data providing unit is adapted to provide nuclear raw data as the raw data and the respiratory motion determination unit is adapted to determine the positions of the structure in the reconstructed intermediate images as the respiratory motion of the living being and to determine for each reconstructed intermediate image the respective respiratory phase of the living being depending on the positions of the structure detected in the reconstructed intermediate images. - a raw data providing unit for providing raw data assigned to different times, wherein the raw data are indicative of a structure, which is influenced by cardiac motion and by respiratory motion of the living being and which is a structure of the living being, wherein the raw data are usable for reconstructing an image of the structure, - a reconstruction unit for reconstructing intermediate images of the structure from the provided raw data, - a structure detection unit for detecting the structure in the reconstructed intermediate images, - a respiratory motion determination unit for determining the respiratory motion of the living being based on the structure detected in the reconstructed intermediate images, characterized in that the raw data providing unit is adapted to provide nuclear raw data as the raw data and the respiratory motion determination unit is adapted to determine the positions of the structure in the reconstructed intermediate images as the respiratory motion of the living being and to determine for each reconstructed intermediate image the respective respiratory phase of the living being depending on the positions of the structure detected in the reconstructed intermediate images.
A chimeric antigen receptor (CAR) which is encoded by the DNA of SEQ ID NO: 39.
A thin film transistor, TFT, comprising: an active layer , an etch stop layer, ESL , a source electrode and a drain electrode , wherein the active layer comprises: at least one first active portion , a second active portion and a third active portion located on both sides of the first active portion and connected to the first active portion ; the at least one first active portion is overlaid by the ESL , and a longitudinal width of the at least one first active portion is less than those/that of the second active portion and/or the third active portion ; the second active portion and the third active portion are partially overlaid by a horizontally-extending portion of the ESL on the first active portion ; a side wing contact is formed between the second active portion and one electrode of the source electrode and the drain electrode , and/or a side wing contact is formed between the third active portion and the other electrode of the source electrode and the drain electrode , the source electrode and the drain electrode is formed on the ESL ; when the side wing contact is formed between the second active portion and the source electrode , the second active portion comprises: a first overlay portion which is overlaid by the ESL , and a first side wing portion which is not overlaid by the ESL and located in a longitudinal direction of the first overlay portion , wherein the side wing contact is formed between the second active portion and the source electrode through the first side wing portion ; and when the side wing contact is formed between the third active portion and the drain electrode , the third active portion comprises: a second overlay portion overlaid by the ESL , and a second side wing portion which is not overlaid by the ESL and located in a longitudinal direction of the second overlay portion , wherein the side wing contact is formed between the third active portion and the drain electrode through the second side wing portion .
A joint implant , comprising: a proximal portion insertable into a hole disposed in a first bone , a distal portion insertable into a hole disposed in a second bone , the second bone positioned adjacent to the first bone, an elongated body extending between the proximal portion and the distal portion and defining an elongated body length (D), the elongated body comprising at least one metal rod extending from the proximal portion to the distal portion and a porous mesh extending along at least a portion of the elongated body length, wherein the at least one metal rod includes a hollow core and a plurality of voids extending from an exterior surface of the rod to the hollow core, and wherein the elongated body defines a generally rectangular cross section. a proximal portion insertable into a hole disposed in a first bone , a distal portion insertable into a hole disposed in a second bone , the second bone positioned adjacent to the first bone, an elongated body extending between the proximal portion and the distal portion and defining an elongated body length (D), the elongated body comprising at least one metal rod extending from the proximal portion to the distal portion and a porous mesh extending along at least a portion of the elongated body length, wherein the at least one metal rod includes a hollow core and a plurality of voids extending from an exterior surface of the rod to the hollow core, and wherein the elongated body defines a generally rectangular cross section.
System for reducing teeth power losses in a gearbox , wherein the system comprises at least two intermeshing toothed gears , each attached to a rotating shaft supported by bearings and mounted within a housing ; two vertical plates configured for being installed inside said housing between the bearings and the toothed gears , one at each side of the toothed gears ; wherein the vertical plates comprise one or several shields configured for separating oil flows within the housing ; wherein one or several shields, called hereafter "internal shields", mounted on the side of the vertical plates directed towards the toothed gears ; wherein the internal shield comprises an anti-recirculation plate characterized in that at least one anti-recirculation plate comprises one or several vertical fins for breaking an axial flow of an air-oil mixture. at least two intermeshing toothed gears , each attached to a rotating shaft supported by bearings and mounted within a housing ; two vertical plates configured for being installed inside said housing between the bearings and the toothed gears , one at each side of the toothed gears ; wherein the vertical plates comprise one or several shields configured for separating oil flows within the housing ; wherein one or several shields, called hereafter "internal shields", mounted on the side of the vertical plates directed towards the toothed gears ; wherein the internal shield comprises an anti-recirculation plate characterized in that at least one anti-recirculation plate comprises one or several vertical fins for breaking an axial flow of an air-oil mixture.
A method of operating a heater for preheating components of a vehicle via a fluid in a heat exchanger , the method being operable prior to starting an engine of the vehicle, the method comprising the steps of: receiving a wake signal to commence heating; determining, prior to commencing heating of the fluid, a parameter value indicative of a flow capability of the fluid in dependence on data received from a temperature sensor and/or a fluid viscosity sensor and/or a sensor for measuring the current drawn by an auxiliary coolant pump when pumping the fluid; selecting, prior to commencing heating of the fluid, a heating profile sequence from at least two heating profile sequences in dependence on the determined parameter value indicative of the flow capability of the fluid, the at least two heating profile sequences comprising a first heating profile sequence for use when the parameter value indicates that the flow capability of the fluid is above a predetermined threshold value and a second heating profile sequence for use when the parameter value indicates that the flow capability of the fluid is below a predetermined threshold value; and initiating the selected heating profile sequence of the heater to commence heating of the fluid; wherein in the second heating profile sequence the heater is operated such that heat is transferred to the fluid at a lower average rate for at least an initial period than when the heater is operated according to the first heating profile sequence. receiving a wake signal to commence heating; determining, prior to commencing heating of the fluid, a parameter value indicative of a flow capability of the fluid in dependence on data received from a temperature sensor and/or a fluid viscosity sensor and/or a sensor for measuring the current drawn by an auxiliary coolant pump when pumping the fluid; selecting, prior to commencing heating of the fluid, a heating profile sequence from at least two heating profile sequences in dependence on the determined parameter value indicative of the flow capability of the fluid, the at least two heating profile sequences comprising a first heating profile sequence for use when the parameter value indicates that the flow capability of the fluid is above a predetermined threshold value and a second heating profile sequence for use when the parameter value indicates that the flow capability of the fluid is below a predetermined threshold value; and initiating the selected heating profile sequence of the heater to commence heating of the fluid; wherein in the second heating profile sequence the heater is operated such that heat is transferred to the fluid at a lower average rate for at least an initial period than when the heater is operated according to the first heating profile sequence.
A communication channel configured to operatively couple a first imaging component of an X-ray imaging system to a second imaging component of the X-ray imaging system, the communication channel comprising: a first authentication module associated with the communication channel ; a second authentication module associated with the second imaging component ; a first connector configured to couple to the first imaging component ; and a second connector configured to couple to the second imaging component ; wherein first imaging component is configured to authenticate the communication channel by transmitting a challenge to the first authentication module and receive a response to the challenge transmitted by the first authentication module ; wherein the first imaging component is configured to authenticate the second imaging component by transmitting a challenge to the second authentication module and receive a response to the challenge transmitted by the second authentication module . a first authentication module associated with the communication channel ; a second authentication module associated with the second imaging component ; a first connector configured to couple to the first imaging component ; and a second connector configured to couple to the second imaging component ; wherein first imaging component is configured to authenticate the communication channel by transmitting a challenge to the first authentication module and receive a response to the challenge transmitted by the first authentication module ; wherein the first imaging component is configured to authenticate the second imaging component by transmitting a challenge to the second authentication module and receive a response to the challenge transmitted by the second authentication module .
An image encoding device adapted to segment an image into blocks and encode the image in units of blocks resulting from segmenting the image, comprising: a block segmentation unit that recursively segments the image into rectangles of a predetermined size to generate a target block subject to encoding; and an encoding unit that encodes block segmentation information of the target block , wherein the block segmentation unit includes: a quartering unit that quarters the target block in recursive segmentation in a horizontal direction and a vertical direction to generate four blocks; and a halving unit that halves the target block in recursive segmentation in a horizontal direction or a vertical direction to generate two blocks, characterized in that , when previous recursive segmentation is halving and the target block is of a predetermined size or smaller, the halving unit prohibits the target block subject to current recursive segmentation from being segmented in the same direction as a direction in which the target block was segmented in the previous recursive segmentation. a block segmentation unit that recursively segments the image into rectangles of a predetermined size to generate a target block subject to encoding; and an encoding unit that encodes block segmentation information of the target block , wherein the block segmentation unit includes: a quartering unit that quarters the target block in recursive segmentation in a horizontal direction and a vertical direction to generate four blocks; and a halving unit that halves the target block in recursive segmentation in a horizontal direction or a vertical direction to generate two blocks, characterized in that , when previous recursive segmentation is halving and the target block is of a predetermined size or smaller, the halving unit prohibits the target block subject to current recursive segmentation from being segmented in the same direction as a direction in which the target block was segmented in the previous recursive segmentation. a quartering unit that quarters the target block in recursive segmentation in a horizontal direction and a vertical direction to generate four blocks; and a halving unit that halves the target block in recursive segmentation in a horizontal direction or a vertical direction to generate two blocks, characterized in that , when previous recursive segmentation is halving and the target block is of a predetermined size or smaller, the halving unit prohibits the target block subject to current recursive segmentation from being segmented in the same direction as a direction in which the target block was segmented in the previous recursive segmentation.
Stator for an electric generator comprising: - a stator body including a stator yoke and a plurality of teeth protruding according to a radial direction orthogonal to the longitudinal axis (Y) from the stator yoke to respective tooth radial ends , each tooth extending longitudinally between a first end and a second opposite end , - a stator support for radially supporting the stator body , the stator support further providing an axial support to the stator body at one of the first end and the second opposite end , - an end plate for axially supporting the stator body at the other of the first end and the second opposite end , - wherein the end plate is provided at the longitudinal end where eddy-current losses are lower, characterized in that - the stator support includes a shoulder for axially supporting the stator body , the shoulder extending circumferentially and protruding radially from the stator support . - a stator body including a stator yoke and a plurality of teeth protruding according to a radial direction orthogonal to the longitudinal axis (Y) from the stator yoke to respective tooth radial ends , each tooth extending longitudinally between a first end and a second opposite end , - a stator support for radially supporting the stator body , the stator support further providing an axial support to the stator body at one of the first end and the second opposite end , - an end plate for axially supporting the stator body at the other of the first end and the second opposite end , - wherein the end plate is provided at the longitudinal end where eddy-current losses are lower, - the stator support includes a shoulder for axially supporting the stator body , the shoulder extending circumferentially and protruding radially from the stator support .