mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine combustor system comprising: a casing ; a combustor provided in the casing to combust fuel and oxidant; a cylinder surrounding a periphery of the combustor to form a first annular space and a second annular space, the first annular space being formed between the cylinder and the combustor , the second annular space being formed between the casing and the cylinder ; an inner pipe penetrating the casing and the cylinder for guiding a first fluid into the first annular space; an outer pipe joined to the casing for guiding a second fluid into the second annular space, the outer pipe having the inner pipe inserted through an interior of the outer pipe , a temperature of the second fluid guided by the outer pipe being lower than a temperature of the first fluid guided by the inner pipe ; a fluid introduction part which introduces the second fluid to an annular passage between the outer pipe and the inner pipe , characterized by a first inner pipe protruding part protruding from an outer peripheral surface of the inner pipe to a radial outside; and a first outer pipe protruding part protruding from an inner peripheral surface of the outer pipe to a radial inside, the first outer pipe protruding part having a fitting groove fitted to the first inner pipe protruding part and penetrating in an axial direction of the outer pipe to enable the prevention of the rotation of the inner pipe in the circumferential direction. a casing ; a combustor provided in the casing to combust fuel and oxidant; a cylinder surrounding a periphery of the combustor to form a first annular space and a second annular space, the first annular space being formed between the cylinder and the combustor , the second annular space being formed between the casing and the cylinder ; an inner pipe penetrating the casing and the cylinder for guiding a first fluid into the first annular space; an outer pipe joined to the casing for guiding a second fluid into the second annular space, the outer pipe having the inner pipe inserted through an interior of the outer pipe , a temperature of the second fluid guided by the outer pipe being lower than a temperature of the first fluid guided by the inner pipe ; a fluid introduction part which introduces the second fluid to an annular passage between the outer pipe and the inner pipe , characterized by a first inner pipe protruding part protruding from an outer peripheral surface of the inner pipe to a radial outside; and a first outer pipe protruding part protruding from an inner peripheral surface of the outer pipe to a radial inside, the first outer pipe protruding part having a fitting groove fitted to the first inner pipe protruding part and penetrating in an axial direction of the outer pipe to enable the prevention of the rotation of the inner pipe in the circumferential direction.
A pharmaceutical composition comprising erythrocytes encapsulating phenylalanine hydroxylase (PAH) in a pharmaceutically acceptable carrier or vehicle,
A cowl assembly for a motor vehicle, which comprises: - a water box comprising two lateral walls and a transverse wall , each lateral wall being intended to be connected to a body element of the vehicle, the transverse wall extending between the lateral walls along a plane XY relative to a reference XYZ related to the vehicle, - a cowl vent grille surmounting the water box , the cowl vent grille having a transverse border extending along the plane XY relative to the reference XYZ related to the vehicle, characterized in that the cowl assembly further comprises a connection profile comprising a sealing element and a fastening sole plate , the fastening sole plate having an upper wall from which extend a lower lip and an intermediate lip , the intermediate lip being positioned between the lower lip and the upper wall , the upper wall and the intermediate lip delimiting a cavity for engaging the cowl vent grille , and the intermediate lip and the lower lip delimiting a cavity for engaging the water box . - a water box comprising two lateral walls and a transverse wall , each lateral wall being intended to be connected to a body element of the vehicle, the transverse wall extending between the lateral walls along a plane XY relative to a reference XYZ related to the vehicle, - a cowl vent grille surmounting the water box , the cowl vent grille having a transverse border extending along the plane XY relative to the reference XYZ related to the vehicle,
A hydrogenation catalyst consisting essentially of: from 20 to 50 wt% of copper, from 1 to 15 wt% of zinc, optionally an auxiliary catalyst component selected from the group consisting of magnesium, strontium, barium and aluminum, and calcium silicate wherein the molar ratio of calcium oxide to silicon oxide in the calcium silicate is from 0.1 to 0.7, said hydrogenation catalyst having a BET specific surface area of from 3 to 30 m 2 /g. from 20 to 50 wt% of copper, from 1 to 15 wt% of zinc, optionally an auxiliary catalyst component selected from the group consisting of magnesium, strontium, barium and aluminum, and calcium silicate wherein the molar ratio of calcium oxide to silicon oxide in the calcium silicate is from 0.1 to 0.7, said hydrogenation catalyst having a BET specific surface area of from 3 to 30 m 2 /g.
Method for the production of a tooth coil for use in a stator or rotor of an electrical machine, comprising at least the following steps: - winding of at least one stranded wire to form a round coil ; - winding an insulating tape around this round coil ; and - forming the round coil wound with the insulating tape into the final shape of a tooth coil , wherein the round coil is inserted in such a way into a combined stretching and pressing device , that a coil opening of the round coil is penetrated by two stretching mandrels of the combined stretching and pressing device , wherein the two stretching mandrels are subsequently displaced outwards and away from each other in such a way that the round coil is stretched along a longitudinal direction, wherein the round coil is additionally compressed in a direction that is essentially perpendicular to the longitudinal direction, and wherein at least one abutting element , which has a greater length than the outer diameter of the coil opening at the beginning of the forming process, is moved into the coil level during the forming of the round coil to the tooth coil , in order to define the final shape of the tooth coil to be achieved during the forming process. - winding of at least one stranded wire to form a round coil ; - winding an insulating tape around this round coil ; and - forming the round coil wound with the insulating tape into the final shape of a tooth coil , wherein the round coil is inserted in such a way into a combined stretching and pressing device , that a coil opening of the round coil is penetrated by two stretching mandrels of the combined stretching and pressing device , wherein the two stretching mandrels are subsequently displaced outwards and away from each other in such a way that the round coil is stretched along a longitudinal direction, wherein the round coil is additionally compressed in a direction that is essentially perpendicular to the longitudinal direction, and wherein at least one abutting element , which has a greater length than the outer diameter of the coil opening at the beginning of the forming process, is moved into the coil level during the forming of the round coil to the tooth coil , in order to define the final shape of the tooth coil to be achieved during the forming process.
A method performed by a radio node to transmit, within a guard band of a first radio access technology, RAT, a radio signal according to a second RAT, the method comprising: determining , based on a channel bandwidth of the first RAT, one or more transmit parameters for transmission of the radio signal according to the second RAT, for transmission of the radio signal to comply with emission limits for the first RAT, wherein the one or more transmit parameters include a frequency position of the radio signal within the guard band of the first RAT; and configuring the radio node with the one or more transmit parameters for transmitting the radio signal according to the second RAT within the guard band of the first RAT, wherein nominal emission limits are applicable for transmitting a radio signal according to the second RAT irrespective of whether the radio signal is transmitted in the guard band for the first RAT, wherein additional emission limits are applicable in addition to the nominal emission limits for transmitting the radio signal according to the second RAT within the guard band of the first RAT, depending on a frequency offset of the radio signal from an edge of a channel bandwidth of the first RAT, and wherein the additional emission limits are enforced when the frequency offset is smaller than a defined threshold and are not enforced when the frequency offset is greater than the defined threshold. determining , based on a channel bandwidth of the first RAT, one or more transmit parameters for transmission of the radio signal according to the second RAT, for transmission of the radio signal to comply with emission limits for the first RAT, wherein the one or more transmit parameters include a frequency position of the radio signal within the guard band of the first RAT; and configuring the radio node with the one or more transmit parameters for transmitting the radio signal according to the second RAT within the guard band of the first RAT, wherein nominal emission limits are applicable for transmitting a radio signal according to the second RAT irrespective of whether the radio signal is transmitted in the guard band for the first RAT, wherein additional emission limits are applicable in addition to the nominal emission limits for transmitting the radio signal according to the second RAT within the guard band of the first RAT, depending on a frequency offset of the radio signal from an edge of a channel bandwidth of the first RAT, and wherein the additional emission limits are enforced when the frequency offset is smaller than a defined threshold and are not enforced when the frequency offset is greater than the defined threshold.
Support structure for supporting an enclosed belt conveyor between two transport units , the support structure comprising - a first end element with a main extension in a longitudinal direction (L11), a width extension in a width direction (W11) orthogonal to the longitudinal direction and a height extension in a height direction (H11) orthogonal to the longitudinal and the width direction; - at least one guide assembly for engaging opposite longitudinal edges of a belt of an enclosed belt conveyor ; - a first telescopic element connected to the first end element ; wherein - the first end element has an inner connector adapted to form a connection allowing for rotation about an axis parallel to the height direction (H11); and - the first telescopic element is arranged to form a connection with one of a second end element or a link element or a transport unit connected to the inner connector of the first end element, and wherein - an outer end of the first end element has a first end connector adapted to form a connection with a first transport unit , characterised in that the connection allows for rotation about an axis parallel to the width direction (W11) and about an axis parallel to the longitudinal direction (L11). - a first end element with a main extension in a longitudinal direction (L11), a width extension in a width direction (W11) orthogonal to the longitudinal direction and a height extension in a height direction (H11) orthogonal to the longitudinal and the width direction; - at least one guide assembly for engaging opposite longitudinal edges of a belt of an enclosed belt conveyor ; - a first telescopic element connected to the first end element ; wherein - the first end element has an inner connector adapted to form a connection allowing for rotation about an axis parallel to the height direction (H11); and - the first telescopic element is arranged to form a connection with one of a second end element or a link element or a transport unit connected to the inner connector of the first end element, and wherein - an outer end of the first end element has a first end connector adapted to form a connection with a first transport unit , characterised in that the connection allows for rotation about an axis parallel to the width direction (W11) and about an axis parallel to the longitudinal direction (L11).
An image processing apparatus comprising: a generator configured to generate distribution data indicating a two-dimensional frequency distribution of horizontal distance values of a range image based on the range image having pixel values according to distance of an object in a plurality of captured images; a position predictor configured to predict a predicted position of the object in the distribution data with respect to a range image of a current frame, based on the distribution data with respect to range images of a plurality of previous frames generated by the generator ; and a tracking unit configured to continue tracking of the object after the tracking has been lost, based on a similarity between a region of the object in the range image of a previous frame and a region in the range image of the current frame with respect to each of a plurality of predicted positions of the object, wherein the position predictor is configured to calculate, when the tracking of the object has been lost, each of regions corresponding to the plurality of predicted positions in the current range image of the object based on a relative velocity with respect to a reference vehicle, actual position and actual size of the object. a generator configured to generate distribution data indicating a two-dimensional frequency distribution of horizontal distance values of a range image based on the range image having pixel values according to distance of an object in a plurality of captured images; a position predictor configured to predict a predicted position of the object in the distribution data with respect to a range image of a current frame, based on the distribution data with respect to range images of a plurality of previous frames generated by the generator ; and a tracking unit configured to continue tracking of the object after the tracking has been lost, based on a similarity between a region of the object in the range image of a previous frame and a region in the range image of the current frame with respect to each of a plurality of predicted positions of the object, wherein the position predictor is configured to calculate, when the tracking of the object has been lost, each of regions corresponding to the plurality of predicted positions in the current range image of the object based on a relative velocity with respect to a reference vehicle, actual position and actual size of the object.
A method of operating a User Equipment, UE, device , the method comprising: providing a prompt through a user interface for a user of the UE device to position the UE device physically positioned against an antenna of a radio access network, RAN, node; accepting user input indicating that the UE device is physically positioned against the antenna after providing the prompt; responsive to accepting the user input indicating that the UE device is physically against the antenna, obtaining installation data relating to the antenna of the RAN node, wherein the installation data comprises physical installation data including at least one of a height of the antenna, a direction of the antenna, and/or a tilt of the antenna; and transmitting the installation data from the UE device to a management system for a wireless communication network including the RAN node. providing a prompt through a user interface for a user of the UE device to position the UE device physically positioned against an antenna of a radio access network, RAN, node; accepting user input indicating that the UE device is physically positioned against the antenna after providing the prompt; responsive to accepting the user input indicating that the UE device is physically against the antenna, obtaining installation data relating to the antenna of the RAN node, wherein the installation data comprises physical installation data including at least one of a height of the antenna, a direction of the antenna, and/or a tilt of the antenna; and transmitting the installation data from the UE device to a management system for a wireless communication network including the RAN node.
A method for a post process treatment of a plurality of individual expanded particles for manufacturing at least a part of a molded sporting good, in particular a midsole of a shoe, the method comprising: a. providing a plurality of individual expanded particles (120; 200) of a particle foam; and b. controlling a heat treatment to increase the density of each of the individual expanded particles (120; 200) prior to molding the at least a part of the sporting good. a. providing a plurality of individual expanded particles (120; 200) of a particle foam; and b. controlling a heat treatment to increase the density of each of the individual expanded particles (120; 200) prior to molding the at least a part of the sporting good.
A turbine for a turbomachine comprising: - an annular row of moving blades surrounded by a support ring of an abradable material carried by a housing , the ring defining a radially outer face , - a distributor mounted downstream of the said annular row of moving blades and comprising a means of attachment to a means of supporting the housing , the said means of attachment comprising a radially outer spoiler coming to bear radially inwards on a radially outer annular face of a cylindrical wall of said means of support, the cylindrical wall of the means of support extends in a direction parallel to the turbine axis, the abradable material support ring being carried by the housing via the means of attachment of the distributor, the said means of support further comprising an annular wall extending radially inwards from the cylindrical wall and engaged at its radially inner end in an annular groove of the ring , and in which a free annular space is formed between a radially outer face of the ring and the cylindrical wall of the means of support. - an annular row of moving blades surrounded by a support ring of an abradable material carried by a housing , the ring defining a radially outer face , - a distributor mounted downstream of the said annular row of moving blades and comprising a means of attachment to a means of supporting the housing , the said means of attachment comprising a radially outer spoiler coming to bear radially inwards on a radially outer annular face of a cylindrical wall of said means of support, the cylindrical wall of the means of support extends in a direction parallel to the turbine axis, the abradable material support ring being carried by the housing via the means of attachment of the distributor, the said means of support further comprising an annular wall extending radially inwards from the cylindrical wall and engaged at its radially inner end in an annular groove of the ring , and in which a free annular space is formed between a radially outer face of the ring and the cylindrical wall of the means of support.
An ex-vivo method for determining myeloid NK-cells comprising the steps of: a) providing a sample containing myeloid NK-cells; b) marking the myeloid NK-cells of the sample by means of at least one marking reagent; and c) detecting the myeloid NK-cells, wherein the myeloid NK-cells are characterized by the expression of cell surface marker phenotypical for NK-cells and by an expression of IL6Ra wherein the cell surface marker phenotypical for NK-cells is CD56, and/or NKp46, and/or CD11b at positive or high level in addition to CD56 and NKp46, wherein the myeloid NK-cells are CD3 negative. a) providing a sample containing myeloid NK-cells; b) marking the myeloid NK-cells of the sample by means of at least one marking reagent; and c) detecting the myeloid NK-cells, wherein the myeloid NK-cells are characterized by the expression of cell surface marker phenotypical for NK-cells and by an expression of IL6Ra wherein the cell surface marker phenotypical for NK-cells is CD56, and/or NKp46, and/or CD11b at positive or high level in addition to CD56 and NKp46, wherein the myeloid NK-cells are CD3 negative.
A method to run a stationary combustion system fueled by a methane-rich natural gas supply wherein the methane-rich natural gas supply is derived from a natural gas feedstream comprising methane and one or more of the natural gas liquids (NGLs): ethane, propane, butane, pentane, or heavier hydrocarbons, wherein some or all of the NGLs are separated from the natural gas feedstream by means of a NGLs separation unit to provide the methane-rich natural gas supply, wherein the NGLs separation unit comprises: (i) an adsorption unit comprising an adsorption bed comprising an adsorbent media which adsorbs NGLs to form a loaded adsorbent media and (ii) a regeneration unit comprising a means to regenerate loaded adsorbent media by causing the release of adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media wherein the method comprises the steps of: (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply, (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit , (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) discharging the released NGLs to be recovered, re-injected, or flared, and (f) using the methane-rich natural gas supply to fuel the combustion system, wherein the adsorption media is a cross-linked macroporous polymeric adsorbent, a partially pyrolized macroporous polymer having a carbon to hydrogen ratio of 1.5:1 to 20:1, or mixtures thereof. (i) an adsorption unit comprising an adsorption bed comprising an adsorbent media which adsorbs NGLs to form a loaded adsorbent media and (ii) a regeneration unit comprising a means to regenerate loaded adsorbent media by causing the release of adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media (a) passing the natural gas feedstream through the adsorption unit generating the adsorbent loaded with NGLs and a methane-rich natural gas supply, (b) transporting the adsorbent loaded with NGLs from the adsorption unit to the regeneration unit , (c) regenerating the adsorbent loaded with NGLs by releasing the adsorbed NGLs from the loaded adsorbing media and forming regenerated adsorbent media (d) transporting the regenerated adsorbent media back to the adsorption unit for reuse, (e) discharging the released NGLs to be recovered, re-injected, or flared, and (f) using the methane-rich natural gas supply to fuel the combustion system,
A method of wireless communications, performed by a user equipment, UE, that is a member of a group of UEs and is a leader of the group of UEs, comprising: receiving , attribute information from one or more UEs in the group of UEs; generating group attribute information based on the received attribute information; and broadcasting the group attribute information on behalf of the group of UEs, characterized by receiving one or more basic safety messages from one or more other devices; and transmitting a message to the group of UEs including the one or more basic safety messages in a message-digest form. receiving , attribute information from one or more UEs in the group of UEs; generating group attribute information based on the received attribute information; and broadcasting the group attribute information on behalf of the group of UEs, characterized by receiving one or more basic safety messages from one or more other devices; and transmitting a message to the group of UEs including the one or more basic safety messages in a message-digest form.