mhurhangee/ep-ind-claims huggingface dataset:
Longitudinal adjuster, in particular for a vehicle seat, the longitudinal adjuster having at least one pair of rails which is comprised of a first seat rail and a second seat rail which can be displaced in the longitudinal direction (x) relative to the first seat rail, the seat rails (12, 14) mutually embracing one another thereby forming an inner channel, a spindle nut mounted with the second seat rail and a spindle operatively connected to the spindle nut being arranged in the inner channel, wherein a gear which can be driven by means of a motor and interacts with the spindle is arranged at a front end of the first seat rail, wherein the spindle is mounted at a front end portion of the spindle in the gear and at a rear end portion of the spindle in a pivot bearing of the first seat rail, wherein a first transverse bolt is received in a first slot of the first seat rail in front of the spindle nut in the longitudinal direction (x), wherein the spindle is guided without contact through an opening of the first transverse bolt, wherein a shoulder of the spindle is arranged at a distance forwardly from the first transverse bolt in the longitudinal direction (x), wherein in response to a predetermined force action, for example in the event of a crash, the first transverse bar jams between the first seat rail and the shoulder, and as a result a force can be diverted from the first seat rail via the first transverse bar, the shoulder, the spindle and the spindle nut to the second seat rail, characterized in that the pivot bearing supporting the rear end portion of the spindle is a second crossbar, the second crossbar having a bearing opening for receiving a bearing bushing, wherein a further shoulder is arranged at the rear end portion of the spindle, which shoulder is rotatably mounted in the bearing bush by means of a cylindrical first portion and is spaced from the second transverse bolt by a radially enlarged second portion.
A variator comprising an input surface (10, 13) and an output surface (11, 12) defining a toroidal cavity coaxially mounted for rotation on an input shaft defining a variator axis and two rollers (14, 16-Fig.2) in driving engagement with the input and output surfaces, the variator further comprising an output drive, a take-off drive operatively engaged with the output surface (11, 12) through the output drive and disposed radially of the variator axis whereby a radial force (Fg) perpendicular to the variator axis is generated by the take-off drive and wherein at one particular ratio within an operating range of the variator the rollers contact the input and output surfaces at contact points so that the contact points lie generally in a plane; and wherein the output drive and take-off drive are operatively engaged by a chain or belt, characterized in that said plane is substantially perpendicular to the direction of the radial force (Fg).
An aircraft flap system comprising: a first flap; a panel (14, 46) pivotally attached to the first flap; an actuator (15, 44, 45) configured to controllably position the panel in a stowed position in which the panel serves as a continuation of the upper surface of the first flap such that airflow attaches to and is directed over the upper surface of the first flap and the panel and in a deployed position in which a forward edge of the panel is raised and an opposed rearward edge of the panel is lowered relative to the first flap; and wherein one or more openings are defined between the first flap and the panel in the deployed position such that airflow may be directed therethrough. a first flap; a panel (14, 46) pivotally attached to the first flap; an actuator (15, 44, 45) configured to controllably position the panel in a stowed position in which the panel serves as a continuation of the upper surface of the first flap such that airflow attaches to and is directed over the upper surface of the first flap and the panel and in a deployed position in which a forward edge of the panel is raised and an opposed rearward edge of the panel is lowered relative to the first flap; and wherein one or more openings are defined between the first flap and the panel in the deployed position such that airflow may be directed therethrough.
Use of compositions comprising - at least one polyol and - at least one carbodiimide of the formula R 1 - -OC-HN-(R-N=C=N-) m -R-NH-CO- -R 1 with m = 1 to 40, where R is C 6 -C 18 -alkylene or C 6 -C 18 -cycloalkylene, and R 1 is C 1 -C 4 -alkyl or else -(CH 2) h -O-[(CH 2) k -O] g -R 2, where h = 1-3, k = 1-3, g = 5-20, and where R 2 is H or C 1 -C 4 -alkyl, and at least one diisocyanate for controlling pot life. - at least one polyol and - at least one carbodiimide of the formula R 1 - -OC-HN-(R-N=C=N-) m -R-NH-CO- -R 1 with m = 1 to 40, where R is C 6 -C 18 -alkylene or C 6 -C 18 -cycloalkylene, and R 1 is C 1 -C 4 -alkyl or else -(CH 2) h -O-[(CH 2) k -O] g -R 2, where h = 1-3, k = 1-3, g = 5-20, and where R 2 is H or C 1 -C 4 -alkyl, and at least one diisocyanate for controlling pot life. with m = 1 to 40, where R is C 6 -C 18 -alkylene or C 6 -C 18 -cycloalkylene, and R 1 is C 1 -C 4 -alkyl or else -(CH 2) h -O-[(CH 2) k -O] g -R 2, where h = 1-3, k = 1-3, g = 5-20, and where R 2 is H or C 1 -C 4 -alkyl, and at least one diisocyanate for controlling pot life.
A percutaneous access system, comprising: a cannula with an internal passageway extending through a length thereof, the internal passageway including a tapered section within an expandable section at a distal portion of the cannula, the expandable section including a plurality of leaves that are circumferentially adjacent to one another and that are configured to be forced radially outward from one another; and an obturator configured to move coaxially through the internal passageway through the cannula, characterized by a handle secured to a proximal end of the cannula, the handle configured to enable the obturator to be driven rotationally into and out of the internal passageway through the cannula and/or to enable manual longitudinal movement of the obturator through the handle and the cannula, the handle including: a distal hub; a main body proximal to the distal hub, the distal hub fixedly coupled to a distal side of the main body; and a proximal hub coupled to the main body in a manner that enables selective rotation of the proximal hub relative to the main body and the distal hub and selective longitudinal movement of the proximal hub toward and/or away from the main body and the distal hub. a cannula with an internal passageway extending through a length thereof, the internal passageway including a tapered section within an expandable section at a distal portion of the cannula, the expandable section including a plurality of leaves that are circumferentially adjacent to one another and that are configured to be forced radially outward from one another; and an obturator configured to move coaxially through the internal passageway through the cannula, characterized by a handle secured to a proximal end of the cannula, the handle configured to enable the obturator to be driven rotationally into and out of the internal passageway through the cannula and/or to enable manual longitudinal movement of the obturator through the handle and the cannula, the handle including: a distal hub; a main body proximal to the distal hub, the distal hub fixedly coupled to a distal side of the main body; and a proximal hub coupled to the main body in a manner that enables selective rotation of the proximal hub relative to the main body and the distal hub and selective longitudinal movement of the proximal hub toward and/or away from the main body and the distal hub. a distal hub; a main body proximal to the distal hub, the distal hub fixedly coupled to a distal side of the main body; and a proximal hub coupled to the main body in a manner that enables selective rotation of the proximal hub relative to the main body and the distal hub and selective longitudinal movement of the proximal hub toward and/or away from the main body and the distal hub.
An electronic device, comprising: antenna structures; non-near-field communications circuitry coupled to the antenna structures; near-field communications circuitry; and a balun that couples the near-field communications circuitry to the antenna structures; characterised by: the antenna structures including an inverted-F antenna resonating element arm and an antenna ground. antenna structures; non-near-field communications circuitry coupled to the antenna structures; near-field communications circuitry; and a balun that couples the near-field communications circuitry to the antenna structures; characterised by: the antenna structures including an inverted-F antenna resonating element arm and an antenna ground.
A wall block element (1, 2, 3) comprising - a first panel and a second panel, at least said first panel being a natural stone slab, and - one or more spacer elements (8, 9) made of metal for placing and adjoining the first panel and the second panel together in parallel and at a distance in relation to each other, and - an inner space being defined by the panels in-between the panels, in which inner space a filling material, such as cast concrete, can be placed, said spacer elements each having connecting means to attach at least the first panel to the spacer elements, characterized in that the second panel is made of a sheet metal and is an integral structure with the spacer elements (8, 9), said wall block element being for the retaining wall in which the second panel is against the soil and the first panel having an outer surface as a façade of the wall block element; that the second panel and the spacer elements (8, 9) are formed of a single sheet metal blank, the two spacer elements (8, 9) being bent from the ends of the second panel perpendicularly in relation to the plane of the second panel; and that the second panel comprises an upper edge and a lower edge, said upper edge having an edge bend which is directed perpendicularly towards the first panel, and said lower edge having a receptable which opens to an opposite direction in relation to the direction of the edge bend, the receptable being adapted to receive inside the edge bend of another wall block element. - a first panel and a second panel, at least said first panel being a natural stone slab, and - one or more spacer elements (8, 9) made of metal for placing and adjoining the first panel and the second panel together in parallel and at a distance in relation to each other, and - an inner space being defined by the panels in-between the panels, in which inner space a filling material, such as cast concrete, can be placed, said spacer elements each having connecting means to attach at least the first panel to the spacer elements, characterized in that the second panel is made of a sheet metal and is an integral structure with the spacer elements (8, 9), said wall block element being for the retaining wall in which the second panel is against the soil and the first panel having an outer surface as a façade of the wall block element; that the second panel and the spacer elements (8, 9) are formed of a single sheet metal blank, the two spacer elements (8, 9) being bent from the ends of the second panel perpendicularly in relation to the plane of the second panel; and that the second panel comprises an upper edge and a lower edge, said upper edge having an edge bend which is directed perpendicularly towards the first panel, and said lower edge having a receptable which opens to an opposite direction in relation to the direction of the edge bend, the receptable being adapted to receive inside the edge bend of another wall block element.
Method for testing the load change of a compressed gas accumulator comprising the following steps: arranging the compressed gas accumulator to be tested within a test container; increasing the pressure of a compressed gas in the compressed gas accumulator to a test pressure; measuring an elastic deformation of the compressed gas accumulator which is caused by the test pressure of the compressed gas; increasing the pressure of a pressure medium in the test container so that the elastic deformation of the compressed gas accumulator is reduced by the pressure of the pressure medium on the compressed gas accumulator; lowering the pressure of the pressure medium in the test container; repeating steps iii. to v. arranging the compressed gas accumulator to be tested within a test container; increasing the pressure of a compressed gas in the compressed gas accumulator to a test pressure; measuring an elastic deformation of the compressed gas accumulator which is caused by the test pressure of the compressed gas; increasing the pressure of a pressure medium in the test container so that the elastic deformation of the compressed gas accumulator is reduced by the pressure of the pressure medium on the compressed gas accumulator; lowering the pressure of the pressure medium in the test container; repeating steps iii. to v.
An optical transmission system, comprising: an optical switching apparatus, at least one optical packet transmission apparatus, configured to transmit a continuous data signal comprising an idle sequence and a data packet, and at least one optical label transmission apparatus, configured to transmit an optical label signal, and transmit the optical label signal to an optical switching apparatus, wherein the optical switching apparatus is configured to build, according to the optical label signal, a switching and transmission path for transmitting a continuous data signal transmitted by a corresponding optical packet transmission apparatus, wherein any optical label carried in the optical label signal corresponds to one data packet in the corresponding data signal, and switching and transmission paths corresponding to data signals transmitted by the any two different optical packet transmission apparatuses have different output ports. an optical switching apparatus, at least one optical packet transmission apparatus, configured to transmit a continuous data signal comprising an idle sequence and a data packet, and at least one optical label transmission apparatus, configured to transmit an optical label signal, and transmit the optical label signal to an optical switching apparatus, wherein the optical switching apparatus is configured to build, according to the optical label signal, a switching and transmission path for transmitting a continuous data signal transmitted by a corresponding optical packet transmission apparatus, wherein any optical label carried in the optical label signal corresponds to one data packet in the corresponding data signal, and switching and transmission paths corresponding to data signals transmitted by the any two different optical packet transmission apparatuses have different output ports.
An aircraft turbofan gas turbine engine comprising: an annular outer case surrounding a fan assembly; an annular core case positioned within the outer case and accommodating a compressor assembly, a combustion gas generator assembly and a turbine assembly (18;24), the annular outer and core cases (10;13) defining an annular bypass air duct (therebetween for directing a bypass air flow driven by the fan assembly to pass therethrough; a core compartment configured within the annular core case, the core compartment having an inlet defined in the annular core case for introducing a first portion of the bypass air flow into the core compartment to cool a number of engine components located within the core compartment and having an outlet defined in the annular core case downstream of the inlet, the core compartment being sealed to allow the first portion of the bypass air flow to be discharged only through the outlet and back to the annular bypass air duct; and an active tip clearance control (ATCC) apparatus located within the sealed core compartment, the ATCC apparatus having an inlet defined in the annular core case for introducing a second portion of the bypass air flow into the ATCC apparatus and having a vent passage in fluid communication with atmosphere, characterized in the ATCC apparatus being sealed to impede the second portion of the bypass air flow from mixing with the first portion of the bypass air flow. an annular outer case surrounding a fan assembly; an annular core case positioned within the outer case and accommodating a compressor assembly, a combustion gas generator assembly and a turbine assembly (18;24), the annular outer and core cases (10;13) defining an annular bypass air duct (therebetween for directing a bypass air flow driven by the fan assembly to pass therethrough; a core compartment configured within the annular core case, the core compartment having an inlet defined in the annular core case for introducing a first portion of the bypass air flow into the core compartment to cool a number of engine components located within the core compartment and having an outlet defined in the annular core case downstream of the inlet, the core compartment being sealed to allow the first portion of the bypass air flow to be discharged only through the outlet and back to the annular bypass air duct; and an active tip clearance control (ATCC) apparatus located within the sealed core compartment, the ATCC apparatus having an inlet defined in the annular core case for introducing a second portion of the bypass air flow into the ATCC apparatus and having a vent passage in fluid communication with atmosphere, characterized in the ATCC apparatus being sealed to impede the second portion of the bypass air flow from mixing with the first portion of the bypass air flow.
A device for cutting to length a flexible endless tube comprising at least one plastic layer or consisting thereof for manufacturing tubular tube bodies for manufacturing packaging tubes, the device comprising conveyor means for driving the endless tube in a conveying direction, guide means for guiding the endless tube at its outer circumference and cutting means for cutting to length the endless tube along a cutting line extending along the endless tube in a circumferential direction, said cutting means being disposed adjacent to the guide means along the conveying direction, characterized in that the guide means have a plurality of guide elements disposed next to one another in a circumferential direction, limiting a cross-sectionally circular guide envelope contour and adjustable perpendicularly to the conveying direction by means of adjustment means for adjusting a diameter of the guide envelope contour.
Insert arranged along an axis, said insert comprising a first end defining a circular opening, a cylindrical body having an inner wall and an outer wall, a second end defining an opening and forming an expanded collar, characterised in that the body comprises a first portion, adjacent to the first end, equipped with an outer thread and a second portion, adjacent to the first portion, comprising at least two cuts defining at least two flexible strips extending axially, each strap having an outer thread and forming an angle (α) with the axis towards the outside of the body, the second portion further comprising between them at least two cuts of the walls connecting the collar to the first portion.
An apparatus configured to remove one or more substances from blood, wherein the apparatus comprises: a primary filter comprising a first semipermeable membrane separating a blood compartment from an albumin solution loading compartment; a blood circuit configured to move blood through the blood compartment of the primary filter using a blood pump; a dialysate filter comprising a second semipermeable membrane separating an albumin solution cleaning compartment from a dialysate compartment; a dialysate circuit configured to move dialysate through the dialysate compartment of the dialysate filter; an albumin solution circuit configured to move albumin solution through the albumin solution loading compartment of the primary filter, wherein the albumin solution circuit comprises: an albumin solution pump configured to pump the albumin solution into the albumin solution loading compartment of the primary filter; an albumin solution circuit pressure sensor configured to measure albumin circuit pressure in the albumin solution circuit; and a control unit operably connected to the albumin solution pump and the albumin solution circuit pressure sensor, wherein the control unit is configured to operate the albumin solution pump such that the albumin solution circuit pressure remains within a selected value range by varying an albumin solution flow rate in the albumin solution circuit. a primary filter comprising a first semipermeable membrane separating a blood compartment from an albumin solution loading compartment; a blood circuit configured to move blood through the blood compartment of the primary filter using a blood pump; a dialysate filter comprising a second semipermeable membrane separating an albumin solution cleaning compartment from a dialysate compartment; a dialysate circuit configured to move dialysate through the dialysate compartment of the dialysate filter; an albumin solution circuit configured to move albumin solution through the albumin solution loading compartment of the primary filter, wherein the albumin solution circuit comprises: an albumin solution pump configured to pump the albumin solution into the albumin solution loading compartment of the primary filter; an albumin solution circuit pressure sensor configured to measure albumin circuit pressure in the albumin solution circuit; and an albumin solution pump configured to pump the albumin solution into the albumin solution loading compartment of the primary filter; an albumin solution circuit pressure sensor configured to measure albumin circuit pressure in the albumin solution circuit; and a control unit operably connected to the albumin solution pump and the albumin solution circuit pressure sensor, wherein the control unit is configured to operate the albumin solution pump such that the albumin solution circuit pressure remains within a selected value range by varying an albumin solution flow rate in the albumin solution circuit.