mhurhangee/ep-ind-claims huggingface dataset:
Method for welding of at least two insulated electrical conductors to a rigid contact element of metal each, which has a rectangular cross section and protrudes from the housing of an electrical device, by which the conductors with their insulated areas are clamped into a recess of a plastic body which is fixed to the housing in the neighbourhood of the contact element respectively, characterized by the use of a connector element of an electrically conductive material, which has a clamping element for the electrically conductive connection to the bared end of the conductor and a hook which protrudes from the same with an angle of 90° or about 90°, wherein - the connector element at first is connected to the bared end of the conductor by its clamping element, - the hook thereafter is inserted into a slot of the plastic body, within which it is fastened immovable in a position, in which the clamping element abuts to the surface of the contact element, and - the clamping element finally is welded to the contact element. - the connector element at first is connected to the bared end of the conductor by its clamping element, - the hook thereafter is inserted into a slot of the plastic body, within which it is fastened immovable in a position, in which the clamping element abuts to the surface of the contact element, and - the clamping element finally is welded to the contact element.
Door locking device with a rocker unit comprising a rocker, a rocker spring at the rocker, a handle at the rocker, which handle is rotatable with respect to the rocker about a first non-fixed rotation axis, and a rocker abutment for the handle, wherein a first torque M 1 ≠0 is exercisable onto the handle by an engagement of a locking pin in the handle, wherein the rocker is adapted to be rotatable about a second fixed rotation axis and wherein the rocker spring is adapted to exercise a second torque M 2 ≠0 on the rocker and wherein the locking pin is movable from a first position to a second position by the second torque M 2, characterized in that the door locking device further comprises a lever unit in mechanical connection with the rocker unit, and an electrically operated actuator unit in mechanical connection with the lever unit for moving the locking pin from the second position to a third position, wherein the lever unit is adapted to convert a force from the actuator unit in a third torque M 3 which acts upon the rocker.
An electromechanical actuator for a brake calliper of an automobile vehicle, this actuator comprising a casing having an attachment face for attachment to a calliper body, this casing enclosing an electric motor having an axis of rotation, and a mechanical reduction gear mated with this electric motor, the mechanical reduction gear consisting of rotating elements (16, 17, 18) which rotate about other axes parallel to the axis of rotation of the motor, characterised in that the entire motor and at least most of the reduction gear extend on a same side of the attachment face along the axis of rotation of the motor.
A handle weight mounting structure of a straddle-type vehicle including: a handle pipe; and a handle weight which is supported by said handle pipe and configured to reduce vibrations of said handle pipe, said handle weight including: an outer weight which is provided on an end part of said handle pipe; an inner weight which is supported inside said handle pipe via a rubber member; and a fastening bolt which is provided to penetrate said outer weight for fixing said outer weight to said handle pipe, wherein said fastening bolt includes: a shank portion in which an external thread portion to be screwed and joined to an inner face of said handle pipe is formed; and a head portion which is formed on an end part of said shank portion for pressing said outer weight in an axial direction of said handle pipe, said shank portion includes a lock portion for coupling said outer weight and said inner weight to each other, and said lock portion is provided on an end part of said external thread portion opposite from said head portion.
A filtering injection needle assembly for a syringe, comprising: an injection needle including a needle and a hub for supporting the needle and configured to be couplable to the syringe; and a cap in the form of a hollow pipe configured to receive the needle and to be hermetically couplable to an outer periphery of the hub and including a filter, wherein the hub is formed with a through-hole for communication between an inside and an outside of the hub, and opening/closing of the through-hole is controlled by a one-way valve means on the hub, and wherein the one-way valve means is configured to be closed when an injection liquid is injected an injection needle including a needle and a hub for supporting the needle and configured to be couplable to the syringe; and a cap in the form of a hollow pipe configured to receive the needle and to be hermetically couplable to an outer periphery of the hub and including a filter, wherein the hub is formed with a through-hole for communication between an inside and an outside of the hub, and opening/closing of the through-hole is controlled by a one-way valve means on the hub, and wherein the one-way valve means is configured to be closed when an injection liquid is injected
A lining material peeling method of peeling a lining material, which is fixedly formed on a surface of a base material, from the base material, wherein a liquefied fluid which evaporates after injection is injected to a boundary between the base material and the lining material, wherein the liquefied fluid is injected onto a surface of the lining material to form a penetration hole in the lining material, and the liquefied fluid is injected from the penetration hole to the boundary between the base material and the lining material to form a peeling region in which the lining material is peeled from the base material due to an expansion force of the liquefied fluid when the liquefied fluid evaporates. a liquefied fluid which evaporates after injection is injected to a boundary between the base material and the lining material, wherein the liquefied fluid is injected onto a surface of the lining material to form a penetration hole in the lining material, and the liquefied fluid is injected from the penetration hole to the boundary between the base material and the lining material to form a peeling region in which the lining material is peeled from the base material due to an expansion force of the liquefied fluid when the liquefied fluid evaporates.
Packaging device configured to support medical containers, the packaging device comprising a first nest and a second nest, said first nest including a first set of supporting units configured to support a proximal end of a first plurality of medical containers and said second nest including a second set of supporting units configured to support a proximal end of a second plurality of medical containers, the first set of supporting units and the second set of supporting units being configured to support said first plurality of medical containers and said second plurality of medical containers so that the first plurality of medical containers and the second plurality of medical containers are supported in an inverted position relative to each other, wherein the first set of supporting units includes apertures arranged to allow removal of the first plurality of medical containers along a first direction of a longitudinal axis perpendicular to the nests, whereas the second set of supporting units includes apertures arranged to allow removal of the second plurality of medical containers along a second direction of the longitudinal axis opposite the first direction, and wherein the first nest comprises guiding means configured to maintain a distal end of the second plurality of medical containers while the second nest comprises guiding means configured to maintain a distal end of the first plurality of medical containers, the guiding means comprising an aperture.
A method of preparing a cDNA library from a plurality of single cells, the method comprising the steps of: i. releasing mRNA from each single cell to provide a plurality of individual mRNA samples, wherein the mRNA in each individual mRNA sample is from a single cell; ii. synthesizing a first strand of cDNA from the mRNA in each individual mRNA sample with a first strand synthesis primer and incorporating a tag into the cDNA to provide a plurality of tagged cDNA samples, wherein the cDNA in each tagged cDNA sample is complementary to mRNA from a single cell, and wherein the tag comprises a cell-specific identifier sequence and a unique molecular identifier sequence; iii. pooling the tagged cDNA samples; iv. optionally amplifying the pooled cDNA samples to generate a cDNA library comprising double-stranded cDNA; and v. performing a tagmentation reaction to simultaneously cleave each cDNA and incorporate an adapter into each strand of the cDNA, thereby generating a plurality of tagged cDNA fragments. i. releasing mRNA from each single cell to provide a plurality of individual mRNA samples, wherein the mRNA in each individual mRNA sample is from a single cell; ii. synthesizing a first strand of cDNA from the mRNA in each individual mRNA sample with a first strand synthesis primer and incorporating a tag into the cDNA to provide a plurality of tagged cDNA samples, wherein the cDNA in each tagged cDNA sample is complementary to mRNA from a single cell, and wherein the tag comprises a cell-specific identifier sequence and a unique molecular identifier sequence; iii. pooling the tagged cDNA samples; iv. optionally amplifying the pooled cDNA samples to generate a cDNA library comprising double-stranded cDNA; and v. performing a tagmentation reaction to simultaneously cleave each cDNA and incorporate an adapter into each strand of the cDNA, thereby generating a plurality of tagged cDNA fragments.
A device for fastening loads to the underside of a scaffolding deck of a scaffold, comprising at least one fastening means (3a, 3b, 3c, 3d, 3e), which enables a fastening to the underside of the scaffolding deck, and at least one fastening option (10', 10") for loads, characterized in that the device has a horizontal load beam, to which the fastening option (10', 10", 10"') for loads is attached and the load beam is horizontally variable in its length, wherein the fastening means (3b, 3c) are formed at horizontally opposite ends of the load beam, and the fastening option (10', 10") for loads is configured as a running rail (10"). at least one fastening means (3a, 3b, 3c, 3d, 3e), which enables a fastening to the underside of the scaffolding deck, and at least one fastening option (10', 10") for loads, characterized in that the device has a horizontal load beam, to which the fastening option (10', 10", 10"') for loads is attached and the load beam is horizontally variable in its length, wherein the fastening means (3b, 3c) are formed at horizontally opposite ends of the load beam, and the fastening option (10', 10") for loads is configured as a running rail (10").
Drive device of an electromotive adjusting drive of a motor vehicle, having a drive housing with a brushless electric motor, which can be mounted therein, and with a stator winding and a rotor with a rotor shaft, which is coupled or can be coupled to a gear unit, and having motor electronics with a printed circuit board, - wherein the electric motor is an external rotor motor and the stator has an externally toothed stator base body with a number of stator teeth arranged in a star shape and wound with the stator winding, and a central shaft bushing for the rotor shaft, - wherein the rotor has a rotor housing surrounding the stator base body and coupled to the rotor shaft with permanent magnets arranged therein, - wherein the drive housing has a housing opening, through which the electric motor can be inserted into the drive housing, characterizied in that - a number of phase connections of the stator winding are guided into a radially oriented joining position, - wherein the printed circuit board has a number of connection sockets corresponding to the number of phase connections, which receive the phase connections in the course of insertion of the electric motor into the drive housing, and that - the connection sockets for the phase connections - with respect to the motor axis of the electric motor - are configured as axially running guide slots which, starting from a printed circuit board edge facing the stator base body, extend into the printed circuit board. - wherein the electric motor is an external rotor motor and the stator has an externally toothed stator base body with a number of stator teeth arranged in a star shape and wound with the stator winding, and a central shaft bushing for the rotor shaft, - wherein the rotor has a rotor housing surrounding the stator base body and coupled to the rotor shaft with permanent magnets arranged therein, - wherein the drive housing has a housing opening, through which the electric motor can be inserted into the drive housing, characterizied in that - a number of phase connections of the stator winding are guided into a radially oriented joining position, - wherein the printed circuit board has a number of connection sockets corresponding to the number of phase connections, which receive the phase connections in the course of insertion of the electric motor into the drive housing, and that - the connection sockets for the phase connections - with respect to the motor axis of the electric motor - are configured as axially running guide slots which, starting from a printed circuit board edge facing the stator base body, extend into the printed circuit board.
A method for coordinating inter-cell interference in a heterogeneous network comprising a macro cell and at least one small cell, the method comprising: obtaining, with regard to a terminal device in a small cell, a type of interference from the macro cell to the small cell; determining a relationship between a number of uplink subframes and a number of downlink subframes in a current subframe configuration used in the macro cell; allocating protected subframes for the terminal device according to the obtained type of interference and the determined relationship; and scheduling transmission in relation to the allocated protected subframes in the macro cell; wherein the type of interference is obtained from among the following: uplink-dominant interference in which an impact of uplink interference from the macro cell on the small cell is more serious than an impact of downlink interference from the macro cell on the small cell; downlink-dominant interference in which the impact of the downlink interference on the small cell is more serious than the impact of the uplink interference on the small cell; and bidirectional interference in which the impact of the uplink interference on the small cell is equivalent to the impact of the downlink interference on the small cell. obtaining, with regard to a terminal device in a small cell, a type of interference from the macro cell to the small cell; determining a relationship between a number of uplink subframes and a number of downlink subframes in a current subframe configuration used in the macro cell; allocating protected subframes for the terminal device according to the obtained type of interference and the determined relationship; and scheduling transmission in relation to the allocated protected subframes in the macro cell; wherein the type of interference is obtained from among the following: uplink-dominant interference in which an impact of uplink interference from the macro cell on the small cell is more serious than an impact of downlink interference from the macro cell on the small cell; downlink-dominant interference in which the impact of the downlink interference on the small cell is more serious than the impact of the uplink interference on the small cell; and bidirectional interference in which the impact of the uplink interference on the small cell is equivalent to the impact of the downlink interference on the small cell. uplink-dominant interference in which an impact of uplink interference from the macro cell on the small cell is more serious than an impact of downlink interference from the macro cell on the small cell; downlink-dominant interference in which the impact of the downlink interference on the small cell is more serious than the impact of the uplink interference on the small cell; and bidirectional interference in which the impact of the uplink interference on the small cell is equivalent to the impact of the downlink interference on the small cell.
A device for electrical connection of internal elements of the reaction chamber to a vacuum vessel in a nuclear fusion reactor comprising: a pair of flanges (1,2), and a plurality of electrically conductive elements stacked between the flanges (1,2); wherein each electrically conductive element is configured lamellar, has an undulate shape and includes surface portions oriented in different directions, characterized in that the electrically conductive elements and the flanges (1,2) are formed as an integral unit, and each electrically conductive element has an increased thickness in the bent part between the surface portions oriented in different directions and at the transition areas from the electrically conductive elements to the flanges (1,2). a pair of flanges (1,2), and a plurality of electrically conductive elements stacked between the flanges (1,2); wherein each electrically conductive element is configured lamellar, has an undulate shape and includes surface portions oriented in different directions, characterized in that the electrically conductive elements and the flanges (1,2) are formed as an integral unit, and each electrically conductive element has an increased thickness in the bent part between the surface portions oriented in different directions and at the transition areas from the electrically conductive elements to the flanges (1,2).
Process for the purification of synthesis gas, comprising at least the following stages: a) a stage for dividing the synthesis gas into at least a first synthesis gas flow and a second synthesis gas flow of the same composition, b1) a stage for the steam conversion of the carbon monoxide of the first synthesis gas flow leaving the stage a), in order to produce a gaseous effluent containing at least hydrogen H 2 and carbon dioxide CO 2, b2) a stage for the removal of the acid gases from the gaseous effluent leaving the stage b1) by contacting the said effluent with an aqueous solution of amines comprising at least one primary and/or secondary amine, mixed or not with at least one tertiary amine or a secondary amine containing at least one quaternary carbon atom in the α or alpha position of the nitrogen atom or two tertiary carbon atoms in the α and α' positions, c1) a stage for the catalytic hydrolysis of the COS and HCN present in the second synthesis gas flow that has not undergone the conversion reaction of carbon monoxide with steam, c2) a stage for removal of the acid gases from the synthesis gas flow leaving the COS and HCN catalytic hydrolysis stage c1), by contacting the said flow with an aqueous solution of amines containing at least one tertiary amine, d) recombination of at least a part of the gaseous effluents leaving the stages b2) et c2) in order to obtain a purified synthesis gas. a) a stage for dividing the synthesis gas into at least a first synthesis gas flow and a second synthesis gas flow of the same composition, b1) a stage for the steam conversion of the carbon monoxide of the first synthesis gas flow leaving the stage a), in order to produce a gaseous effluent containing at least hydrogen H 2 and carbon dioxide CO 2, b2) a stage for the removal of the acid gases from the gaseous effluent leaving the stage b1) by contacting the said effluent with an aqueous solution of amines comprising at least one primary and/or secondary amine, mixed or not with at least one tertiary amine or a secondary amine containing at least one quaternary carbon atom in the α or alpha position of the nitrogen atom or two tertiary carbon atoms in the α and α' positions, c1) a stage for the catalytic hydrolysis of the COS and HCN present in the second synthesis gas flow that has not undergone the conversion reaction of carbon monoxide with steam, c2) a stage for removal of the acid gases from the synthesis gas flow leaving the COS and HCN catalytic hydrolysis stage c1), by contacting the said flow with an aqueous solution of amines containing at least one tertiary amine, d) recombination of at least a part of the gaseous effluents leaving the stages b2) et c2) in order to obtain a purified synthesis gas.
A system for producing droplet streams having droplets with uniform diameter, the system comprising: a solution dispenser and a droplet maker portion, the droplet maker portion comprises three stages, a piezo housing stage, a reservoir vessel stage and a nozzle holder stage; the solution dispenser is in fluid communication with a fluid reservoir in a fluid reservoir vessel in the reservoir vessel stage; a separation membrane that is part of the piezo housing stage, the fluid reservoir adjacent to and in contact with one side of the separation membrane; the piezo housing stage has a retaining device that includes a steel pipe and a screw cap, a swivel bolt, which screws into the screw cap, applies pressure to a piezo actuator to contact with the separation membrane on a side opposite that in contact with the fluid reservoir, the piezo actuator produces oscillations communicated to the separation membrane between the piezo housing stage and the reservoir vessel; and one or more capillary nozzles disposed away from the separation membrane, wherein the one or more capillary nozzles receive fluid from the fluid reservoir and ejects a droplet stream from the capillary nozzle. a solution dispenser and a droplet maker portion, the droplet maker portion comprises three stages, a piezo housing stage, a reservoir vessel stage and a nozzle holder stage; the solution dispenser is in fluid communication with a fluid reservoir in a fluid reservoir vessel in the reservoir vessel stage; a separation membrane that is part of the piezo housing stage, the fluid reservoir adjacent to and in contact with one side of the separation membrane; the piezo housing stage has a retaining device that includes a steel pipe and a screw cap, a swivel bolt, which screws into the screw cap, applies pressure to a piezo actuator to contact with the separation membrane on a side opposite that in contact with the fluid reservoir, the piezo actuator produces oscillations communicated to the separation membrane between the piezo housing stage and the reservoir vessel; and one or more capillary nozzles disposed away from the separation membrane, wherein the one or more capillary nozzles receive fluid from the fluid reservoir and ejects a droplet stream from the capillary nozzle.