mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine blade , comprising: a base portion configured for mounting on a rotor ; an airfoil portion having a first end coupled to the base portion , and a second end opposite the first end, wherein a creep resistance of the airfoil portion is greater than the base portion , and wherein a fracture toughness of the airfoil portion is less than the base portion ; characterized in that the turbomachine blade further comprises; a tip portion coupled to the second end of the airfoil portion , wherein a creep resistance of the tip portion is less than the airfoil portion and greater than the base portion , and wherein a fracture toughness of the tip portion is less than the base portion and greater than the airfoil portion ; wherein each of the base portion , the airfoil portion , and the tip portion of the airfoil component are formed of a single alloy or superalloy material; wherein a material composition of the tip portion includes a particle size larger than a particle size of a material composition of the airfoil portion ; and wherein a material composition of the tip portion includes a particle size larger than a material composition of the airfoil portion , and smaller than the particle size of the material composition of the base portion . a base portion configured for mounting on a rotor ; an airfoil portion having a first end coupled to the base portion , and a second end opposite the first end, wherein a creep resistance of the airfoil portion is greater than the base portion , and wherein a fracture toughness of the airfoil portion is less than the base portion ; characterized in that the turbomachine blade further comprises; a tip portion coupled to the second end of the airfoil portion , wherein a creep resistance of the tip portion is less than the airfoil portion and greater than the base portion , and wherein a fracture toughness of the tip portion is less than the base portion and greater than the airfoil portion ; wherein each of the base portion , the airfoil portion , and the tip portion of the airfoil component are formed of a single alloy or superalloy material; wherein a material composition of the tip portion includes a particle size larger than a particle size of a material composition of the airfoil portion ; and wherein a material composition of the tip portion includes a particle size larger than a material composition of the airfoil portion , and smaller than the particle size of the material composition of the base portion .
A method of producing a fuel additive, comprising: passing a feed stream comprising C4 hydrocarbons through a cracker unit producing a cracked stream ; passing the cracked stream and methanol through a methyl tertiary butyl ether unit to produce a first process stream , wherein methanol and isobutylene are present in the methyl tertiary butyl ether unit in a molar ratio of one mole of isobutylene to 0.05 moles to 10.0 moles of methanol; withdrawing a methyl tertiary butyl ether product from the methyl tertiary butyl ether unit ; passing the first process stream through a selective butadiene hydrogenation unit to produce a second process stream ; passing the second process stream and water through a hydration unit producing a third process stream , wherein a temperature within the hydration unit is 30°C to 250°C, a pressure within the hydration unit is 500 kiloPascals to 20,000 kiloPascals, and wherein greater than or equal to 0.10% of any butene present in the second process stream is converted to butanol within the hydration unit ; wherein the second process stream comprises less than or equal to 5.0% by weight butadiene prior to passing through the hydration unit ; withdrawing a fuel additive product from the hydration unit , wherein the fuel additive product comprises 1-butanol, 2-butanol, tert-butyl alcohol, di-isobutene, or a combination thereof; passing the third process stream through a total hydrogenation unit producing a hydrogenated process stream ; and recycling the hydrogenated process stream to the cracker unit . passing a feed stream comprising C4 hydrocarbons through a cracker unit producing a cracked stream ; passing the cracked stream and methanol through a methyl tertiary butyl ether unit to produce a first process stream , wherein methanol and isobutylene are present in the methyl tertiary butyl ether unit in a molar ratio of one mole of isobutylene to 0.05 moles to 10.0 moles of methanol; withdrawing a methyl tertiary butyl ether product from the methyl tertiary butyl ether unit ; passing the first process stream through a selective butadiene hydrogenation unit to produce a second process stream ; passing the second process stream and water through a hydration unit producing a third process stream , wherein a temperature within the hydration unit is 30°C to 250°C, a pressure within the hydration unit is 500 kiloPascals to 20,000 kiloPascals, and wherein greater than or equal to 0.10% of any butene present in the second process stream is converted to butanol within the hydration unit ; wherein the second process stream comprises less than or equal to 5.0% by weight butadiene prior to passing through the hydration unit ; withdrawing a fuel additive product from the hydration unit , wherein the fuel additive product comprises 1-butanol, 2-butanol, tert-butyl alcohol, di-isobutene, or a combination thereof; passing the third process stream through a total hydrogenation unit producing a hydrogenated process stream ; and recycling the hydrogenated process stream to the cracker unit .
Sliding device for a vehicle seat, which sliding device comprises a pair of parallel slideways , each comprising a lower rail , an upper rail , that is slidably mounted to said lower rail, and a latch , which is arranged between said lower rail and said upper rail and selectively allows / prevents movement of the upper rail relative to the lower rail, wherein in a rest condition said latches are in a locking position, in which they prevent the movement of the upper rails relative to the lower rails, and wherein the sliding device comprises a releasing member for driving said latches to an unlocking position in which they allow the movement of the upper rails relative to the lower rails, wherein said releasing member is made as a "U"-shaped releasing handle comprising a middle gripping portion and two substantially parallel arms wherein each of said latches comprises a front portion and a rear portion joined by an intermediate portion , wherein said front portion is fixed to the respective upper rail and said rear portion is bent into a "U" shape comprising a lower leg and an upper leg , joined by a curved, vertically oriented section , wherein latching elements are configured to cooperate with corresponding latching elements provided in said lower rails are provided in said lower leg of said rear portion of said latch, characterized in that said upper leg of said rear portion of said latch is configured to engage said releasing member and is provided with engaging elements configured to cooperate with engaging elements provided at respective end portions of said arms of said releasing handle .
Cutting plate for a chip-removing cutting tool, comprising a cutting plate upper face and a cutting plate lower face , one or more lateral faces , cutting edges at the transition from the cutting plate upper face to the lateral face(s) , and comprising a circular clamping trough in the cutting plate upper face , which has an outer diameter d1, with 2 mm < d1 <= 6 mm, preferably 2 mm < d1 < 5 mm, applying to the outer diameter d1 of the clamping trough , characterized in that the clamping trough has an inner circular protrusion , the tip of the protrusion being above the base of the clamping trough and below the cutting plate upper face , and the protrusion having an outer diameter d2 and a height h from the base of the clamping trough to the tip of the protrusion , and the diameter d2 being measured at half the height h of the protrusion and 0.8 mm < d2 < 3.5 mm applying to the diameter d2 of the protrusion .
A method for manufacturing a housing enclosing a pyrotechnic charge (40 ; 42), said method comprising at least: - inserting a pyrotechnic charge into a charging volume (V) laterally delimited by a rigid cylindrical charging wall and in a lower part by a first element of the housing to be obtained, - positioning a second element of the housing to be obtained of cylindrical shape above the inserted pyrotechnic charge and in the extension of the cylindrical charging wall, said second element having a lateral cylindrical wall of the same shape and diameter as the cylindrical charging wall and being able to cooperate with the first element, and - jointly translating (T1) the second element and the cylindrical charging wall relative to the first element such as to make the second element cooperate with the first element and form the housing enclosing the pyrotechnic charge. - inserting a pyrotechnic charge into a charging volume (V) laterally delimited by a rigid cylindrical charging wall and in a lower part by a first element of the housing to be obtained, - positioning a second element of the housing to be obtained of cylindrical shape above the inserted pyrotechnic charge and in the extension of the cylindrical charging wall, said second element having a lateral cylindrical wall of the same shape and diameter as the cylindrical charging wall and being able to cooperate with the first element, and - jointly translating (T1) the second element and the cylindrical charging wall relative to the first element such as to make the second element cooperate with the first element and form the housing enclosing the pyrotechnic charge.
A method for controlling power, comprising: when the service type of a User Equipment, UE, is a pre-designated service type, acquiring a Hybrid Automatic Repeat Request, HARQ, process activation/deactivation flag of the UE; and in a deactivated HARQ process corresponding to the HARQ process deactivation flag of the UE, adjusting at least one of the power control related parameters, so as to reduce the transmit power of the UE (S130); wherein the step of adjusting at least one of the power control related parameters so as to reduce the transmit power of the UE comprises: adjusting a target Signal to Interference Ratio, SIR, of the UE in the deactivated HARQ process according to a predefined adjustment amount for the target SIR, to obtain an adjusted target SIR of the UE in the deactivated HARQ process; in the deactivated HARQ process of the UE, performing power control according to the adjusted target SIR of the UE in the deactivated HARQ process, so as to reduce the transmit power of the UE. when the service type of a User Equipment, UE, is a pre-designated service type, acquiring a Hybrid Automatic Repeat Request, HARQ, process activation/deactivation flag of the UE; and in a deactivated HARQ process corresponding to the HARQ process deactivation flag of the UE, adjusting at least one of the power control related parameters, so as to reduce the transmit power of the UE (S130); wherein the step of adjusting at least one of the power control related parameters so as to reduce the transmit power of the UE comprises: adjusting a target Signal to Interference Ratio, SIR, of the UE in the deactivated HARQ process according to a predefined adjustment amount for the target SIR, to obtain an adjusted target SIR of the UE in the deactivated HARQ process; in the deactivated HARQ process of the UE, performing power control according to the adjusted target SIR of the UE in the deactivated HARQ process, so as to reduce the transmit power of the UE. adjusting a target Signal to Interference Ratio, SIR, of the UE in the deactivated HARQ process according to a predefined adjustment amount for the target SIR, to obtain an adjusted target SIR of the UE in the deactivated HARQ process; in the deactivated HARQ process of the UE, performing power control according to the adjusted target SIR of the UE in the deactivated HARQ process, so as to reduce the transmit power of the UE.
A method of operating a network node supporting dual connectivity, DC, communication with a wireless terminal (UE) as a main network node (MN) in cooperation with a secondary network node (SN), the method comprising: providing dual connectivity communication with the wireless terminal in cooperation with the secondary network node; responsive to deciding to suspend the dual connectivity communication with the wireless terminal, transmitting a connection release message to the wireless terminal; responsive to deciding to suspend the dual connectivity communication with the wireless terminal, transmitting a suspension indication message to the secondary network node to instruct the secondary network node to suspend the bearers of the secondary network node; and responsive to deciding to suspend the dual connectivity communication with the wireless terminal, suspending the dual connectivity communication by suspending the bearers of the main network node. providing dual connectivity communication with the wireless terminal in cooperation with the secondary network node; responsive to deciding to suspend the dual connectivity communication with the wireless terminal, transmitting a connection release message to the wireless terminal; responsive to deciding to suspend the dual connectivity communication with the wireless terminal, transmitting a suspension indication message to the secondary network node to instruct the secondary network node to suspend the bearers of the secondary network node; and responsive to deciding to suspend the dual connectivity communication with the wireless terminal, suspending the dual connectivity communication by suspending the bearers of the main network node.
An electrochemical device comprising: a positive electrode having a positive electrode material layer containing a conductive polymer doped with a first anion and a second anion; a negative electrode having a negative electrode material layer storing and releasing lithium ions; and a nonaqueous electrolytic solution having lithium ionic conductivity, wherein: the second anion is more easily dedoped from the conductive polymer than the first anion, characterised in that , at an end period of charge of the electrochemical device, a number of moles M1 of the first anion and a number of moles M2 of the second anion respectively doped in the conductive polymer satisfy a relationship of M1 < M2, and at an end period of discharge of the electrochemical device, a number of moles M3 of the first anion and a number of moles M4 of the second anion respectively doped in the conductive polymer satisfy a relationship of M3 > M4. a positive electrode having a positive electrode material layer containing a conductive polymer doped with a first anion and a second anion; a negative electrode having a negative electrode material layer storing and releasing lithium ions; and a nonaqueous electrolytic solution having lithium ionic conductivity, wherein: the second anion is more easily dedoped from the conductive polymer than the first anion, characterised in that , at an end period of charge of the electrochemical device, a number of moles M1 of the first anion and a number of moles M2 of the second anion respectively doped in the conductive polymer satisfy a relationship of M1 < M2, and at an end period of discharge of the electrochemical device, a number of moles M3 of the first anion and a number of moles M4 of the second anion respectively doped in the conductive polymer satisfy a relationship of M3 > M4. at an end period of charge of the electrochemical device, a number of moles M1 of the first anion and a number of moles M2 of the second anion respectively doped in the conductive polymer satisfy a relationship of M1 < M2, and at an end period of discharge of the electrochemical device, a number of moles M3 of the first anion and a number of moles M4 of the second anion respectively doped in the conductive polymer satisfy a relationship of M3 > M4.
A power tool assembly comprising: a drop arm assembly movable along a drop path between a first drop arm assembly position whereat a portion of a shaping device supported by the drop arm assembly extends above a workpiece support surface and a second drop arm assembly position whereat the portion of the shaping device does not extend above the workpiece support surface ; a cartridge that houses a first actuating device and a second actuating device , wherein the first and second actuating devices (310; 312) are joined by a bridge of the cartridge ; an actuator housing configured to house the first actuating device at an active location at which a force from the first actuating device is transferred to the drop arm assembly when the drop arm assembly is at the first drop arm assembly position, the actuator housing including a slit extending from a first end portion of the actuator housing toward a second end portion of the actuator housing , wherein the bridge of the cartridge is received in the slit , so that the first actuating device is positioned at the active location and the second actuating device is positioned at an inactive location; and a control system configured such that when the first actuating device is housed within the actuator housing , the control system controls the first actuating device to transfer the force to the drop arm assembly when an unsafe condition is sensed. a drop arm assembly movable along a drop path between a first drop arm assembly position whereat a portion of a shaping device supported by the drop arm assembly extends above a workpiece support surface and a second drop arm assembly position whereat the portion of the shaping device does not extend above the workpiece support surface ; a cartridge that houses a first actuating device and a second actuating device , wherein the first and second actuating devices (310; 312) are joined by a bridge of the cartridge ; an actuator housing configured to house the first actuating device at an active location at which a force from the first actuating device is transferred to the drop arm assembly when the drop arm assembly is at the first drop arm assembly position, the actuator housing including a slit extending from a first end portion of the actuator housing toward a second end portion of the actuator housing , wherein the bridge of the cartridge is received in the slit , so that the first actuating device is positioned at the active location and the second actuating device is positioned at an inactive location; and a control system configured such that when the first actuating device is housed within the actuator housing , the control system controls the first actuating device to transfer the force to the drop arm assembly when an unsafe condition is sensed.
A method for edge-forming cellulose products in a forming mould system (S), wherein the forming mould system (S) is adapted for forming the cellulose products from an air-formed cellulose blank structure , wherein the forming mould system (S) comprises a first mould part and a second mould part arranged for cooperating with each other, wherein the first mould part comprises an edge-forming device with a protruding element configured for compacting and separating fibres of the cellulose blank structure , wherein the edge-forming device is movably arranged in relation to a base structure of the first mould part , wherein the edge-forming device is adapted for interacting with a pressure member arranged in the base structure , wherein the method comprises the steps: providing the air-formed cellulose blank structure , and arranging the cellulose blank structure between the first mould part and the second mould part ; forming a compacted edge structure of the cellulose products by separating fibres of the cellulose blank structure with the protruding element , applying an edge-forming temperature (T EF ) onto the cellulose blank structure , and compacting the cellulose blank structure by applying an edge-forming pressure (P EF ) by means of the pressure member onto the cellulose blank structure between the protruding element and the second mould part . providing the air-formed cellulose blank structure , and arranging the cellulose blank structure between the first mould part and the second mould part ; forming a compacted edge structure of the cellulose products by separating fibres of the cellulose blank structure with the protruding element , applying an edge-forming temperature (T EF ) onto the cellulose blank structure , and compacting the cellulose blank structure by applying an edge-forming pressure (P EF ) by means of the pressure member onto the cellulose blank structure between the protruding element and the second mould part .
A multilayer panel with an embedded light source comprising: a first electrode associated with a first layer of material ; a second electrode associated with the first layer of material ; a light source in electrical communication with the first electrode and the second electrode ; and a second layer of material overlying the first layer of material and the light source , characterized in that the light source rests substantially within a depression in the first layer of material . a first electrode associated with a first layer of material ; a second electrode associated with the first layer of material ; a light source in electrical communication with the first electrode and the second electrode ; and a second layer of material overlying the first layer of material and the light source , characterized in that the light source rests substantially within a depression in the first layer of material .
Plug-in connection for high-voltage applications, having a plug-in connector and a mating plug-in connector , wherein these each have a housing with contact partners which are arranged therein and correspond to one another, characterized in that the plug-in connector and the mating plug-in connector are designed in such a way that they can be moved relative to one another from a preliminary latching position to a final latching position only when two means which are independent of one another and are respectively formed by the plug-in connector and by the mating plug-in connector are operated, wherein a projection which protrudes from the housing of the plug-in connector and a block are formed on the plug-in connector , and a projection is formed on the mating plug-in connector , and wherein the plug-in connector has a tab which protrudes from the housing and the mating plug-in connector has a tab which protrudes from the housing and has a receiving space , wherein the preliminary latching position is defined by way of the projection , after overcoming the block , coming to rest on the projection in order to thereby fix the plug-in connector in its preliminary latching position in the mating plug-in connector in its location, and in that an opening of the tab is accessible and the tab only partially enters the receiving space of the tab , wherein the final latching position is defined by way of the projection , owing to operation of the block , having been moved out of the axial movement direction of the projection and the plug-in connector having been moved further into the mating plug-in connector , so that the protruding tab of the plug-in connector enters the receiving space of the mating plug-in connector.