mhurhangee/patent-ind-claim-en huggingface dataset:
Air-transportable forklift comprising a chassis with a front axle , a rear axle and a mast with forks , the forklift incorporating: - As elements for the distribution of weight on the rear axle • A folding counterweight , hydraulically actuated, by manual control or remote control, the forklift being characterised in that it further incorporates: - As elements for the distribution of weight on the front axle • Two intermediate brackets , inserted in a cavity of the chassis on both sides, fixed to the mast and to the chassis by securing means, • Two support wheels sets , for coupling on the forks , and • Lock device of the carriage (4.1) of the mast . - As elements for the distribution of weight on the rear axle • A folding counterweight , hydraulically actuated, by manual control or remote control, • A folding counterweight , hydraulically actuated, by manual control or remote control, - As elements for the distribution of weight on the front axle • Two intermediate brackets , inserted in a cavity of the chassis on both sides, fixed to the mast and to the chassis by securing means, • Two support wheels sets , for coupling on the forks , and • Lock device of the carriage (4.1) of the mast . • Two intermediate brackets , inserted in a cavity of the chassis on both sides, fixed to the mast and to the chassis by securing means, • Two support wheels sets , for coupling on the forks , and • Lock device of the carriage (4.1) of the mast .
A method for transmitting, by a user equipment, UE, data for a bi-directional transmission in a wireless communication system, the method comprising: detecting that data is available for the bi-directional transmission; configuring a bi-directional channel for data, wherein the bi-directional channel consists of uplink, UL, transmission and sidelink, SL, transmission and wherein the bi-directional channel is divided into the UL channel and the SL channel at a packet data convergence protocol, PDCP, radio link control, RLC, media access control, MAC or physical layer; transmitting a buffer status report for the bi-directional transmission to a network; receiving an UL grant or a SL grant from the network, wherein the UL grant and the SL grant include a radio network temporary identity, RNTI, which is specific to the bi-directional transmission; when the UE receives the UL grant, transmitting the data via the UL channel; and when the UE receives the SL grant, transmitting the data via the SL channel. detecting that data is available for the bi-directional transmission; configuring a bi-directional channel for data, wherein the bi-directional channel consists of uplink, UL, transmission and sidelink, SL, transmission and wherein the bi-directional channel is divided into the UL channel and the SL channel at a packet data convergence protocol, PDCP, radio link control, RLC, media access control, MAC or physical layer; transmitting a buffer status report for the bi-directional transmission to a network; receiving an UL grant or a SL grant from the network, wherein the UL grant and the SL grant include a radio network temporary identity, RNTI, which is specific to the bi-directional transmission; when the UE receives the UL grant, transmitting the data via the UL channel; and when the UE receives the SL grant, transmitting the data via the SL channel.
A polyurethane reaction system, comprising an isocyanate component that includes at least one polyisocyanate an isocyanate-reactive component that includes a storage stable polyol component having a single phase liquid mixture at 23°C including: a first polyether polyol in an amount from 20 wt% to 90 wt%, based on total weight of the polyol component, the first polyether polyol being a glycol based polyoxypropylene-polyoxyethylene polyether polyol having number average molecular weight from 1500 g/mol to 1975 g/mol and a polyoxyethylene content from 26 wt% and 34 wt% based on a total weight of the first polyether polyol, and a second polyether polyol in an amount from 10 wt% to 80 wt%, based on total weight of the polyol component, the second polyether polyol having a number average molecular weight from 750 g/mol to 4000 g/mol and a melting point higher than 23°C, wherein a cured reaction product of the isocyanate component and the isocyanate-reactive component has a Shore A hardness greater than 60 as measured according to ASTM D-2240, an ultimate tensile strength greater than 4500 psi (31026.4 kPa) as measured according to ASTM D-638, and a compression set at 23°C of less than 15% as measured according to ASTM D-395B. a first polyether polyol in an amount from 20 wt% to 90 wt%, based on total weight of the polyol component, the first polyether polyol being a glycol based polyoxypropylene-polyoxyethylene polyether polyol having number average molecular weight from 1500 g/mol to 1975 g/mol and a polyoxyethylene content from 26 wt% and 34 wt% based on a total weight of the first polyether polyol, and a second polyether polyol in an amount from 10 wt% to 80 wt%, based on total weight of the polyol component, the second polyether polyol having a number average molecular weight from 750 g/mol to 4000 g/mol and a melting point higher than 23°C,
A print control apparatus comprising: an image data acquisition unit for acquiring at least first image data (IM1) of a raster format that defines color information and second image data (IM2) of a raster format that defines an amount of recording with a special color ink different from the color that is indicated by the color information; a PDL data generation unit for generating PDL data with which an instruction for printing a document comprising at least an image represented by the first image data and the second image data is described by a page description language; and a transfer unit for transferring the generated PDL data to a print unit; the PDL data generation unit being adapted to determine whether or not to convert the second image data into a command in accordance with the content of the second image data including the amount of recording with the special color ink and, in a case where a determination is made to convert into a command, generating a command for designating a method of printing for the special color ink represented by the second image data and generating PDL data that includes the generated command, characterised in that the PDL data generation unit is adapted to determine whether or not to convert the second image data based on whether or not the content of the second image data is such that the amount of information would be reduced by the conversion into a command. an image data acquisition unit for acquiring at least first image data (IM1) of a raster format that defines color information and second image data (IM2) of a raster format that defines an amount of recording with a special color ink different from the color that is indicated by the color information; a PDL data generation unit for generating PDL data with which an instruction for printing a document comprising at least an image represented by the first image data and the second image data is described by a page description language; and a transfer unit for transferring the generated PDL data to a print unit; the PDL data generation unit being adapted to determine whether or not to convert the second image data into a command in accordance with the content of the second image data including the amount of recording with the special color ink and, in a case where a determination is made to convert into a command, generating a command for designating a method of printing for the special color ink represented by the second image data and generating PDL data that includes the generated command, characterised in that the PDL data generation unit is adapted to determine whether or not to convert the second image data based on whether or not the content of the second image data is such that the amount of information would be reduced by the conversion into a command.
A seal assembly for a rotary preheater , the seal assembly comprising: at least one leaf having a base section , the base section defining a fastening area for securing the at least one leaf to a diaphragm of the preheater , the at least one leaf having an elongate section extending away from the base section and terminating at a distal end thereof; and at least one wear resistant member being secured to the at least one leaf proximate the distal end thereof, characterised in that each of the at least one wear resistant members comprises a plurality of elongate strips , each of the plurality of elongate strips comprising a bend having a wear resistant material applied thereto. at least one leaf having a base section , the base section defining a fastening area for securing the at least one leaf to a diaphragm of the preheater , the at least one leaf having an elongate section extending away from the base section and terminating at a distal end thereof; and at least one wear resistant member being secured to the at least one leaf proximate the distal end thereof, characterised in that each of the at least one wear resistant members comprises a plurality of elongate strips , each of the plurality of elongate strips comprising a bend having a wear resistant material applied thereto.
A joining structure comprising: a first member having an upper surface , a lower surface opposite to the upper surface , and a recess including a concave formed in the upper surface and a protrusion formed in the lower surface , the first member including a metal material; a second member including a penetrating part that opens at a position corresponding to the recess and a peripheral edge that defines the penetrating part , including a material that is difficult to weld to the first member , and disposed on the upper surface of the first member ; and a third member including a welded part arc-welded to an inner peripheral surface of the recess and a flange connected to the welded part via the penetrating part and covering the peripheral edge , the third member including a filler material welded to the first member , wherein the second member is compressed by the flange and the first member by solidification compression of the third member , and thus fixed between the flange and the first member . a first member having an upper surface , a lower surface opposite to the upper surface , and a recess including a concave formed in the upper surface and a protrusion formed in the lower surface , the first member including a metal material; a second member including a penetrating part that opens at a position corresponding to the recess and a peripheral edge that defines the penetrating part , including a material that is difficult to weld to the first member , and disposed on the upper surface of the first member ; and a third member including a welded part arc-welded to an inner peripheral surface of the recess and a flange connected to the welded part via the penetrating part and covering the peripheral edge , the third member including a filler material welded to the first member , wherein the second member is compressed by the flange and the first member by solidification compression of the third member , and thus fixed between the flange and the first member .
A range extender fuel cell vehicle , comprising: a motor as a driving source of the vehicle; a battery having an output DC voltage that can drive the motor ; a fuel cell having an output DC voltage less than the output DC voltage of the battery ; a fuel tank that supplies fuel to the fuel cell ; and a DC/DC converter configured to boost the output DC voltage of the fuel cell such that the motor can be driven by an output power of at least one of the fuel cell and the battery , characterized in that the fuel cell has a DC voltage of less than 60 V and is entirely disposed in rear relative to a rear axle of the vehicle, the battery is disposed in front relative to the fuel cell , and the fuel tank and the DC/DC converter are disposed in front relative to the fuel cell and in rear relative to the battery . a motor as a driving source of the vehicle; a battery having an output DC voltage that can drive the motor ; a fuel cell having an output DC voltage less than the output DC voltage of the battery ; a fuel tank that supplies fuel to the fuel cell ; and a DC/DC converter configured to boost the output DC voltage of the fuel cell such that the motor can be driven by an output power of at least one of the fuel cell and the battery , characterized in that the fuel cell has a DC voltage of less than 60 V and is entirely disposed in rear relative to a rear axle of the vehicle, the battery is disposed in front relative to the fuel cell , and the fuel tank and the DC/DC converter are disposed in front relative to the fuel cell and in rear relative to the battery .
A surgical light comprising a plurality of lights associated with a light group , said lights each producing a light beam extending along a longitudinal axis , wherein several first lights are associated with a first light group and several second lights are associated with a second light group , and wherein the longitudinal axes of the light beams of the first lights intersect in a first common focal plane and the longitudinal axes of the light beams of the second lights intersect in a second common focal plane arranged at a distance from the first focal plane , characterized in that a control unit is provided which is electrically connected to each light associated with a light group and the lights of each light group can be supplied with current independently of each other such that a light field geometry produced by the lights in an illumination plane arranged at a distance from the focal plane can be adjusted.
A space vehicle which is a nested-ring cell , the nested-ring cell comprising: an outer ring ; an inner ring located within the outer ring; a middle ring located between the outer ring and the inner ring ; a shaft rotatably connecting the outer ring , the middle ring , and the inner ring : and one or more movable trams , each of the one or more movable trams located on and riding along the outer ring and configured to move along at least a portion of the outer ring on which the respective movable tram is located, wherein the outer ring is a rail, and the cell is configured to connect via the one or more movable trams to at least one other cell in order to form a space system. an outer ring ; an inner ring located within the outer ring; a middle ring located between the outer ring and the inner ring ; a shaft rotatably connecting the outer ring , the middle ring , and the inner ring : and one or more movable trams , each of the one or more movable trams located on and riding along the outer ring and configured to move along at least a portion of the outer ring on which the respective movable tram is located, wherein the outer ring is a rail, and the cell is configured to connect via the one or more movable trams to at least one other cell in order to form a space system.
Aero-refrigeration tower which comprises a mixed module comprising an air humidifying device and a bypass device and a dry module , the dry module being stacked on the mixed module , the tower further comprising a ventilation module , the mixed module being stacked on the ventilation module , said ventilation module comprises a free wheel for drawing in outside air and for outputting the air into the upper portion of the ventilation module , wherein the free wheel has two faces, one so-called rear face and one so-called front face, said free wheel being configured to draw in the outside air in the direction of the axis of rotation of said free wheel via the front face and output the air radially with respect to the axis of rotation of said free wheel , the ventilation module having, passing through it, at least one passage for drawing in outside air and at least one passage for outputting air, said at least one air output passage being configured to direct the flow of air towards the mixed module to the front of the plane formed by the front face, opposite the rear face.
Method for blow moulding a parison , comprising the steps: - inserting a parison into a mould cavity of a blow mould , - introducing a first mould slide into the mould cavity and thus moving a wall region of the parison into the mould cavity until bonding of the wall region with an opposite wall region of the parison occurs, wherein, after the insertion of the parison into the mould cavity and before the bonding of the two wall regions , the parison is partially inflated and the first mould slide , after the bonding of the two wall regions , is withdrawn completely from the mould cavity again, such that the mould slide is removed from the mould cavity again and a closed surface is formed at the wall of the mould cavity again, such that, when the wall regions of the parison that have been moved inwards are pressed together and bonded as a result of an inwardly acting overpressure, a gap formed by the mould slide is closed and a smooth, closed surface for the blow-moulded part is formed on the outside. - inserting a parison into a mould cavity of a blow mould , - introducing a first mould slide into the mould cavity and thus moving a wall region of the parison into the mould cavity until bonding of the wall region with an opposite wall region of the parison occurs, wherein, after the insertion of the parison into the mould cavity and before the bonding of the two wall regions , the parison is partially inflated and the first mould slide , after the bonding of the two wall regions , is withdrawn completely from the mould cavity again, such that the mould slide is removed from the mould cavity again and a closed surface is formed at the wall of the mould cavity again, such that, when the wall regions of the parison that have been moved inwards are pressed together and bonded as a result of an inwardly acting overpressure, a gap formed by the mould slide is closed and a smooth, closed surface for the blow-moulded part is formed on the outside.
An apparatus comprising: a structure , wherein the structure is selected from one of a workpiece, an assembly of components, and a sub-assembly; a robotic attachment element configured for attachment to a robotic device , wherein the robotic device is configured to move a nozzle system relative to the structure such that a sealant material is applied with a desired level of consistency and accuracy; a source attachment element configured for attachment to a source holding the sealant material having a viscosity greater than a selected threshold of about 100,000 centipoise; and a nozzle system positioned at least 25.4mm away from the structure during application of the sealant material onto the structure and configured to apply the sealant material onto the structure in a number of streams to form a sealant deposit having a desired shape wherein the desired shape of the sealant deposit is a bead having a substantially uniform thickness and width along a length of the bead , wherein the nozzle system is configured to apply the sealant material onto the structure in one of a monostream mode and a multistream mode using a selected application pattern, wherein the selected application pattern is a swirl pattern; the nozzle system having a temperature controlling element configured to alter a temperature of the sealant material flowing through the nozzle system to change the viscosity of the sealant material to control an exit velocity of the sealant material . a structure , wherein the structure is selected from one of a workpiece, an assembly of components, and a sub-assembly; a robotic attachment element configured for attachment to a robotic device , wherein the robotic device is configured to move a nozzle system relative to the structure such that a sealant material is applied with a desired level of consistency and accuracy; a source attachment element configured for attachment to a source holding the sealant material having a viscosity greater than a selected threshold of about 100,000 centipoise; and a nozzle system positioned at least 25.4mm away from the structure during application of the sealant material onto the structure and configured to apply the sealant material onto the structure in a number of streams to form a sealant deposit having a desired shape wherein the desired shape of the sealant deposit is a bead having a substantially uniform thickness and width along a length of the bead , wherein the nozzle system is configured to apply the sealant material onto the structure in one of a monostream mode and a multistream mode using a selected application pattern, wherein the selected application pattern is a swirl pattern; the nozzle system having a temperature controlling element configured to alter a temperature of the sealant material flowing through the nozzle system to change the viscosity of the sealant material to control an exit velocity of the sealant material .
Slide gate closure for a metallurgical container, in particular a casting ladle, comprising - a closure housing which can be fastened to the metallurgical container, wherein the closure housing has an inlet opening and an outlet opening for a metallic melt, - a slide frame , which is slidably mounted in the closure housing in a sliding direction (V) and accommodates a slide plate , which has a flow opening for the metallic melt, - a pouring sleeve for discharging the metallic melt through the outlet opening and - a sealing body for sealing the outlet opening against gas, wherein the sealing body has a passage opening for the pouring sleeve , characterized in that the sealing body is arranged on an inner side of the closure housing and is supported on the slide frame via at least one pressure spring . - a closure housing which can be fastened to the metallurgical container, wherein the closure housing has an inlet opening and an outlet opening for a metallic melt, - a slide frame , which is slidably mounted in the closure housing in a sliding direction (V) and accommodates a slide plate , which has a flow opening for the metallic melt, - a pouring sleeve for discharging the metallic melt through the outlet opening and - a sealing body for sealing the outlet opening against gas, wherein the sealing body has a passage opening for the pouring sleeve ,
A compound of Formula 1, or pharmaceutically acceptable salt thereof wherein, R 1 is methoxy; R 2 is -(CH 2 ) m X wherein X is halogen or a radioactive isotope, and m is an integer selected from 1, 2, or 3; R 3 , R 4 and R 5 are independently selected from H or -C 1 -C 6 alkyl; Q is a direct bond; " " is either a single bond or double bond; R 6 is selected from the group consisting of R 7 and R 8 are the same or different and are independently selected from the group consisting of H, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, or hydroxy; n is 1; and p is 1. R 1 is methoxy; R 2 is -(CH 2 ) m X wherein X is halogen or a radioactive isotope, and m is an integer selected from 1, 2, or 3; R 3 , R 4 and R 5 are independently selected from H or -C 1 -C 6 alkyl; Q is a direct bond; " " is either a single bond or double bond; R 6 is selected from the group consisting of R 7 and R 8 are the same or different and are independently selected from the group consisting of H, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, or hydroxy; n is 1; and p is 1.