mhurhangee/patent-ind-claim-en huggingface dataset:
Generator stator for a wind turbine having a stator ring and a laminated stator core , wherein the laminated stator core has a plurality of segment sheets which are arranged in a circumferential direction on the stator ring , wherein the stator ring and the segment sheets have corresponding positive-locking elements which are in engagement with each other and which define a force flow path between the stator ring and the segment sheets , wherein at least one of the positive-locking elements is operationally connected to at least one damping element which is arranged in the force flow path and which is configured to damp a relative movement between the stator ring and the segment sheets , and the stator ring comprises at least one connection element , in particular in the form of a connection strip which extends in the direction of a longitudinal axis (L) of the stator ring and which is/are secured to the stator ring , wherein the corresponding positive-locking element of the stator ring is a portion of the connection element , characterised in that the connection element is constructed in several pieces and has three segments (13a, 13b, 13c; 41a, 41b, 41c; 45a, 45b, 45c) and in that a first segment and a second segment are connected to a first damping element and the second segment and a third segment are connected to a second damping element . wherein at least one of the positive-locking elements is operationally connected to at least one damping element which is arranged in the force flow path and which is configured to damp a relative movement between the stator ring and the segment sheets , and the stator ring comprises at least one connection element , in particular in the form of a connection strip which extends in the direction of a longitudinal axis (L) of the stator ring and which is/are secured to the stator ring , wherein the corresponding positive-locking element of the stator ring is a portion of the connection element , characterised in that the connection element is constructed in several pieces and has three segments (13a, 13b, 13c; 41a, 41b, 41c; 45a, 45b, 45c) and in that a first segment and a second segment are connected to a first damping element and the second segment and a third segment are connected to a second damping element .
A method of sol-gel coating an aluminum or aluminum alloy substrate, the method comprising: (i) contacting a first alkoxysilane with water and an inorganic acid to form a first composition; (ii) contacting a zirconium alkoxide with a first organic acid to form a second composition; (iii) contacting the first composition with the second composition to form a mixture; (iv) contacting one or more second alkoxysilanes and a second organic acid with the mixture to form a sol-gel composition, the sol-gel composition having a ratio of a number of moles of silicon to a number of moles of zirconium (n Si /n Zr ) ranging from 5 to 10; (v) adding a photoinitiator to the sol-gel composition; (vi) applying the sol-gel composition on an aluminum or aluminum alloy substrate a plurality of times to form a plurality of sol-gel layers; (vii) curing at least one of the plurality of sol-gel layers by UV radiation; and (viii) thermally curing the plurality of sol-gel layers to form a corrosion-resistant coating comprising the plurality of sol-gel layers. (i) contacting a first alkoxysilane with water and an inorganic acid to form a first composition; (ii) contacting a zirconium alkoxide with a first organic acid to form a second composition; (iii) contacting the first composition with the second composition to form a mixture; (iv) contacting one or more second alkoxysilanes and a second organic acid with the mixture to form a sol-gel composition, the sol-gel composition having a ratio of a number of moles of silicon to a number of moles of zirconium (n Si /n Zr ) ranging from 5 to 10; (v) adding a photoinitiator to the sol-gel composition; (vi) applying the sol-gel composition on an aluminum or aluminum alloy substrate a plurality of times to form a plurality of sol-gel layers; (vii) curing at least one of the plurality of sol-gel layers by UV radiation; and (viii) thermally curing the plurality of sol-gel layers to form a corrosion-resistant coating comprising the plurality of sol-gel layers.
Method for determining an ideal grinding wheel position relative to a saw blade , in particular a circular saw blade or a band saw blade, the method comprising: determining the position of the grinding wheel center point (PM) relative to the saw blade based on at least one geometric relationship between the grinding wheel and at least one tooth of the saw blade to be ground, wherein the geometric relationship between the grinding wheel and the at least one tooth to be ground of the saw blade is defined at a position of the grinding wheel corresponding to the position of the grinding wheel at the end of a grinding path on the tooth to be ground, the grinding path extending between an end edge and a tooth tip of the tooth to be ground, characterized in that the method comprises the further step of: determining a geometric model of the grinding wheel defining at least one peripheral edge of the grinding wheel , wherein the geometric relationship is determined by putting the at least one peripheral edge of the grinding wheel at the first point (P1) and at the second point (P2) so that the grinding wheel center point (PM) is determinable in the coordinate system, wherein the second point (P2) is defined in a tooth tip , and wherein the first point (P1) is defined at the end edge of the tooth to be ground opposite to the tooth tip . determining the position of the grinding wheel center point (PM) relative to the saw blade based on at least one geometric relationship between the grinding wheel and at least one tooth of the saw blade to be ground, wherein the geometric relationship between the grinding wheel and the at least one tooth to be ground of the saw blade is defined at a position of the grinding wheel corresponding to the position of the grinding wheel at the end of a grinding path on the tooth to be ground, the grinding path extending between an end edge and a tooth tip of the tooth to be ground, characterized in that the method comprises the further step of: determining a geometric model of the grinding wheel defining at least one peripheral edge of the grinding wheel , wherein the geometric relationship is determined by putting the at least one peripheral edge of the grinding wheel at the first point (P1) and at the second point (P2) so that the grinding wheel center point (PM) is determinable in the coordinate system, wherein the second point (P2) is defined in a tooth tip , and wherein the first point (P1) is defined at the end edge of the tooth to be ground opposite to the tooth tip .
A pull-out guide for furniture parts , in particular for drawers, having a body rail attachable to a furniture body, having a running rail attachable to a pull-out furniture part , wherein the running rail is displaceably mounted in the extension direction (E) of the body rail , a locking unit is provided on a front end of the running rail , said locking unit having a locking element provided with a nose , said locking element being able to, on the one hand, be brought into a locking position by displacement in the extension direction (E) of the running rail , in which locking position the nose of the locking element engages in a receptacle of the pull-out furniture part and, on the other hand, being able to be brought into a release position, in which the nose of the locking element does not engage in the receptacle of the pull-out furniture part , characterized in that the locking element is integrally connected to a guide element , by means of which the locking element is mounted at an elongate hole of the running rail so that it is guided in the extension direction (E) of the same.
A movement assembly for an air deflector of an air conditioner, comprising a push plate , a driving disc and an air deflector , one end of the push plate being rotatably connected with the driving disc , the driving disc being rotatably connected with a machine body , the other end of the push plate being provided with a rotary assembly , and a rear side of the rotary assembly being connected with the air deflector , wherein the push plate comprises a main body (1-1) and a connecting rod (1-2), one end of the main body (1-1) is integrally connected with one end of the connecting rod (1-2), the other end of the main body (1-1) is connected to the rotary assembly , and the other end of the connecting rod (1-2) is provided with a first round hole (1-3), characterized in that the one end of the push plate is rotatably connected with a rear side of the driving disc , and the rear side of the driving disc is rotatably connected with the machine body , a width of the connecting rod (1-2) is less than a width of the main body (1-1), and a corner where the connecting rod (1-2) and the main body (1-1) are connected has a fillet (1-5). wherein the push plate comprises a main body (1-1) and a connecting rod (1-2), one end of the main body (1-1) is integrally connected with one end of the connecting rod (1-2), the other end of the main body (1-1) is connected to the rotary assembly , and the other end of the connecting rod (1-2) is provided with a first round hole (1-3), characterized in that the one end of the push plate is rotatably connected with a rear side of the driving disc , and the rear side of the driving disc is rotatably connected with the machine body , a width of the connecting rod (1-2) is less than a width of the main body (1-1), and a corner where the connecting rod (1-2) and the main body (1-1) are connected has a fillet (1-5).
A lubricant comprising a silicon-containing ionic liquid of formula below wherein R 1 is an alkyl group of 1 to 10 carbon atoms, R 2 is an alkyl group of 8 to 20 carbon atoms and R 3 is an alkyl group of 1 to 8 carbon atoms, with the proviso that the number of carbon atoms in R 2 is higher than the number of carbons in R 1 ; and wherein the lubricant further comprises at least one additive selected from the group consisting of surfactants, dispersants, antioxidants, anti-wear agents, rust inhibitors, corrosion inhibitors, friction modifiers, extreme pressure additives, antifoam agents, viscosity modifiers and pour point depressants.
A regulator assembly for a portable pressurised gas cylinder, the regulator assembly comprising: - a first stage regulator having: a first inlet configured to receive high pressure gas (H) from the cylinder, a first regulator element for reducing the pressure of the gas in the first stage regulator and a first outlet for outputting the gas at a regulated pressure (R) characterised in - a second stage regulator having: a second inlet configured to receive gas at the regulated pressure (R), a second regulator element for further reducing the pressure of the gas in the second stage regulator and a second outlet for outputting gas at an outlet pressure which is lower than the regulated pressure; and - a pilot regulator configured to receive gas at the regulated pressure from the first stage regulator , the pilot regulator being controllable by an actuator to set a pilot pressure, the pilot pressure being communicated to the second stage regulator to set the outlet pressure delivered by the second stage regulator . - a first stage regulator having: a first inlet configured to receive high pressure gas (H) from the cylinder, a first regulator element for reducing the pressure of the gas in the first stage regulator and a first outlet for outputting the gas at a regulated pressure (R) characterised in a first inlet configured to receive high pressure gas (H) from the cylinder, a first regulator element for reducing the pressure of the gas in the first stage regulator and a first outlet for outputting the gas at a regulated pressure (R) characterised in - a second stage regulator having: a second inlet configured to receive gas at the regulated pressure (R), a second regulator element for further reducing the pressure of the gas in the second stage regulator and a second outlet for outputting gas at an outlet pressure which is lower than the regulated pressure; and a second inlet configured to receive gas at the regulated pressure (R), a second regulator element for further reducing the pressure of the gas in the second stage regulator and a second outlet for outputting gas at an outlet pressure which is lower than the regulated pressure; and - a pilot regulator configured to receive gas at the regulated pressure from the first stage regulator , the pilot regulator being controllable by an actuator to set a pilot pressure, the pilot pressure being communicated to the second stage regulator to set the outlet pressure delivered by the second stage regulator .
A device for the treatment of the human or animal body, comprising - an applicator (2, 5, 5', 5") to be applied externally onto the body, - a housing in which the applicator (2, 5, 5', 5") is held, and - a mechanism for generating impacts of the applicator (2, 5, 5', 5") relative to the housing in a direction of impact so that the impacts can be coupled into the body when the applicator is applied onto the body, wherein the applicator (2, 5, 5', 5") has a pivot bearing which rotatably holds a rotatable applicator part of the applicator (2, 5, 5', 5") which is designed to be applied onto the body to be treated, and rotation of the rotatable applicator part around an axis of rotation angled in relation to the direction of impact is possible, characterised in that the mechanism for generating the impacts comprises a projectile and an pneumatic device for accelerating the projectile such that the projectile hits the applicator (2, 5, 5', 5"), thereby generating the impact, and wherein the applicator (2, 5, 5', 5") is held in the device by means of a positive locking arrangement such that it is locked against rotation, namely in respect of rotations around an axis parallel to the direction of impact. - an applicator (2, 5, 5', 5") to be applied externally onto the body, - a housing in which the applicator (2, 5, 5', 5") is held, and - a mechanism for generating impacts of the applicator (2, 5, 5', 5") relative to the housing in a direction of impact so that the impacts can be coupled into the body when the applicator is applied onto the body,
Method for producing an energy-storage system for a vehicle , in particular a starter battery for a vehicle , wherein the method comprises the following: (a) providing an energy-storage system which has a multiplicity of energy-storage cells for providing and/or storing electrical energy and has a housing which has a multiplicity of wall elements which delimit an interior space of the housing , wherein the housing is configured to accommodate the multiplicity of energy-storage cells in the interior space of the housing , wherein a multiplicity of separating walls for subdividing the interior space of the housing into a multiplicity of chambers are arranged in the interior space of the housing , wherein each chamber is configured to accommodate an energy-storage cell, wherein a fluidic connection is formed between the individual chambers , and wherein a venting valve is arranged on one of the wall elements, preferably a cover element, of the housing in each case in a region assigned to a corresponding chamber ; and (b) configuring at least one of the venting valves as an active venting valve and configuring the remaining venting valves in each case as a dummy closure . (a) providing an energy-storage system which has a multiplicity of energy-storage cells for providing and/or storing electrical energy and has a housing which has a multiplicity of wall elements which delimit an interior space of the housing , wherein the housing is configured to accommodate the multiplicity of energy-storage cells in the interior space of the housing , wherein a multiplicity of separating walls for subdividing the interior space of the housing into a multiplicity of chambers are arranged in the interior space of the housing , wherein each chamber is configured to accommodate an energy-storage cell, wherein a fluidic connection is formed between the individual chambers , and wherein a venting valve is arranged on one of the wall elements, preferably a cover element, of the housing in each case in a region assigned to a corresponding chamber ; and (b) configuring at least one of the venting valves as an active venting valve and configuring the remaining venting valves in each case as a dummy closure .
A wiper device which controls a duty ratio in accordance with a target rotation speed instructed by an operation of a wiper switch and causes a wiper member to perform a wiping operation using a motor , comprising: a boost control unit which varies an advance angle and an energization angle associated with energization of the motor in accordance with the target rotation speed in a case in which the duty ratio has reached a predetermined upper limit value and a rotation speed of the motor is less than the target rotation speed; the wiper device being characterized by a temperature sensor which detects a temperature of the motor ; a first protection unit which monitors a load state of the motor and performs a first protection control for decreasing the rotational speed of the motor when a high-load state of the motor is detected; and a second protection unit which performs a second protection control for fixing the advance angle and energization angle of the motor by prohibiting an operation of the boost control unit when a first condition has been satisfied and the temperature detected by the temperature sensor exceeds a first threshold while the first protection control is being performed, wherein the first condition refers to reception of an operation signal from the wiper switch . a boost control unit which varies an advance angle and an energization angle associated with energization of the motor in accordance with the target rotation speed in a case in which the duty ratio has reached a predetermined upper limit value and a rotation speed of the motor is less than the target rotation speed; the wiper device being characterized by a temperature sensor which detects a temperature of the motor ; a first protection unit which monitors a load state of the motor and performs a first protection control for decreasing the rotational speed of the motor when a high-load state of the motor is detected; and a second protection unit which performs a second protection control for fixing the advance angle and energization angle of the motor by prohibiting an operation of the boost control unit when a first condition has been satisfied and the temperature detected by the temperature sensor exceeds a first threshold while the first protection control is being performed, wherein the first condition refers to reception of an operation signal from the wiper switch .
A device for controlling food portions, including a hollow body defining a useful volume , three vertical walls dividing the useful volume into three compartments , and a central axis from which said walls extend radially, the device including a vertical movable wall in each compartment, able to pivot about the central axis so as to vary a volume of use of said compartment alone without modifying the volumes of use of the other compartments.
A method for fabricating lead wettable surfaces, the method comprising: providing a lead frame comprising a plurality of lead sets , each lead set comprising a die lead and bond lead having a die surface and a plating surface , vias between adjacent lead sets in a first direction, and an integrated circuit die arranged on the die surface of each die lead ; applying a mold chase to the plating surface of each of the die leads and the bond leads , the mold chase contacting the plurality of lead sets , the mold chase comprising mold chase extensions extending into the vias between each adjacent lead set in the first direction, each mold chase extension having a peak surface , wherein the mold chase extensions fill in the entire space between the sidewalls of the vias ; partially embedding the lead frame assembly in a mold encapsulation such that portions of the mold encapsulation contact the peak surface of each of the mold chase extensions ; removing the mold chase to expose the vias , each via comprising a first lead sidewall of the die lead of each lead set and the second lead sidewall of the bond lead of each lead set ; and plating the plating surface of each of the die leads and the bond leads and plating the first lead sidewall and the second lead sidewall with an electrical plating . providing a lead frame comprising a plurality of lead sets , each lead set comprising a die lead and bond lead having a die surface and a plating surface , vias between adjacent lead sets in a first direction, and an integrated circuit die arranged on the die surface of each die lead ; applying a mold chase to the plating surface of each of the die leads and the bond leads , the mold chase contacting the plurality of lead sets , the mold chase comprising mold chase extensions extending into the vias between each adjacent lead set in the first direction, each mold chase extension having a peak surface , wherein the mold chase extensions fill in the entire space between the sidewalls of the vias ; partially embedding the lead frame assembly in a mold encapsulation such that portions of the mold encapsulation contact the peak surface of each of the mold chase extensions ; removing the mold chase to expose the vias , each via comprising a first lead sidewall of the die lead of each lead set and the second lead sidewall of the bond lead of each lead set ; and plating the plating surface of each of the die leads and the bond leads and plating the first lead sidewall and the second lead sidewall with an electrical plating .
A method of cooling an electric system, comprising: circulating a liquid coolant into a contact with one or more components of the electric system, wherein the liquid coolant comprises: a base oil, wherein the base oil is a major component of the liquid coolant; and a dissolved gas, wherein the dissolved gas is present in the liquid coolant in an amount sufficient to have a measurable effect on fluid viscosity of the liquid coolant; wherein the liquid coolant has a kinematic viscosity at 100 °C of 7 cSt or less.