mhurhangee/ep-ind-claims huggingface dataset:
Connection device for connecting a first and a second prosthesis part (I, II), in particular a tibial and a femoral trial prosthesis for trial arrangement on the corresponding bones, said connection device having: a first connection element, which has inner walls, serving as a guide, and a mating piece, for mounting on the first prosthesis part, in particular the tibial trial prosthesis, and a second connection element, which is enclosed at least in part by the inner walls of the first connection element, is displaceable along the inner walls relative to the first connection element in a displacement direction and has a groove for receiving a portion (IIa) of the second prosthesis part, in particular of the femoral trial prosthesis, wherein the second connection element is displaceable, in the displacement direction relative to the first connection element, to an open position, in which the second connection element is at least in part pushed out of the first connection element, and the groove of the second connection element is at least in part exposed, such that the portion (IIa) of the second prosthesis part can be introduced into the groove and withdrawn from the groove, and to a closed position, in which the second connection element is at least in part pushed into the first connection element, and the mating piece of the first connection element lies opposite the groove of the second connection element and closes the groove in such a way that the portion (IIa) of the second prosthesis part received in the groove is prevented, by the mating piece of the first connection element, from exiting the groove. a first connection element, which has inner walls, serving as a guide, and a mating piece, for mounting on the first prosthesis part, in particular the tibial trial prosthesis, and a second connection element, which is enclosed at least in part by the inner walls of the first connection element, is displaceable along the inner walls relative to the first connection element in a displacement direction and has a groove for receiving a portion (IIa) of the second prosthesis part, in particular of the femoral trial prosthesis, wherein the second connection element is displaceable, in the displacement direction relative to the first connection element, to an open position, in which the second connection element is at least in part pushed out of the first connection element, and the groove of the second connection element is at least in part exposed, such that the portion (IIa) of the second prosthesis part can be introduced into the groove and withdrawn from the groove, and to a closed position, in which the second connection element is at least in part pushed into the first connection element, and the mating piece of the first connection element lies opposite the groove of the second connection element and closes the groove in such a way that the portion (IIa) of the second prosthesis part received in the groove is prevented, by the mating piece of the first connection element, from exiting the groove.
Method for filling containers with a fluid filling material, making use of a filling system, wherein a closure plane of a fluid valve of a filling element (1.1) lies arranged at a height above a filling material level of a fluid compartment (50.2) of a filling material container of a mixer, wherein the container, located in a sealing position with the filling element (1.1) of the filling system, is pressurised in a pressurising phase at least periodically with a gas to a pressurising pressure (P Pressure), wherein the gas used for the pressurising is drawn from a gas compartment (50.2), which is under a positive pressure (P Boiler), of the filling material container of the mixer, and in a filling phase which then follows, with the fluid valve of the filling element (1.1) open, is filled with the filling material from the fluid compartment (50.2) of the filling material container by way of a product line of the filling system (1.1), entirely filled with the fluid filling material, wherein, at least during the filling phase, the return gas which is displaced out of the container by the inflowing filling material is discharged into a ring channel via a return gas path of the filling element (1.1), and wherein, during the pressurising phase, at least before the subsequent filling phase starts, a pressurising pressure (P Pressure) is generated in the container, which is at a pressure level below the positive pressure (P Boiler) in the gas compartment (50.2) of the filling material container of the mixer.
A heat exchanger for use in a gas turbine engine comprising: a central body including an inlet manifold (126; 202) and at least two outlet manifolds (128; 204), and a plurality of tubes for communicating air between holes in an outer periphery of said inlet manifold (126; 202) and holes in an outer periphery of said at least two outlet manifolds (128; 204); and passages for cooling air to pass across said tubes, wherein said inlet manifold (126; 202) is positioned centrally between said at least two outlet manifolds (128; 204), characterised in that: said central body is formed of super alloy nickel material including at least 50 percent by weight of gamma-prime; said tubes each pass through a plurality of plates on opposed sides of said central body and said tubes extend to both sides of said inlet manifold (126; 202) and include an elbow that returns into another tube portion that extends toward the at least two outlet manifolds (128; 204); and said heat exchanger extends between two opposed ends and is configured such that air to be cooled passes into said inlet manifold (126; 202) at both said opposed ends, and passes from said at least two outlet manifolds (128; 204) at both said opposed ends. a central body including an inlet manifold (126; 202) and at least two outlet manifolds (128; 204), and a plurality of tubes for communicating air between holes in an outer periphery of said inlet manifold (126; 202) and holes in an outer periphery of said at least two outlet manifolds (128; 204); and passages for cooling air to pass across said tubes, wherein said inlet manifold (126; 202) is positioned centrally between said at least two outlet manifolds (128; 204), characterised in that: said central body is formed of super alloy nickel material including at least 50 percent by weight of gamma-prime; said tubes each pass through a plurality of plates on opposed sides of said central body and said tubes extend to both sides of said inlet manifold (126; 202) and include an elbow that returns into another tube portion that extends toward the at least two outlet manifolds (128; 204); and said heat exchanger extends between two opposed ends and is configured such that air to be cooled passes into said inlet manifold (126; 202) at both said opposed ends, and passes from said at least two outlet manifolds (128; 204) at both said opposed ends.
A computing device comprising: a plurality of memory devices; a plurality of direct memory access, DMA, controllers; and an on-chip interconnect configured to implement control logic to: convey a read request from a primary DMA controller of the plurality of DMA controllers to a source memory device of the plurality of memory devices; and convey a read response from the source memory device to the primary DMA controller and one or more secondary DMA controllers of the plurality of DMA controllers. a plurality of memory devices; a plurality of direct memory access, DMA, controllers; and an on-chip interconnect configured to implement control logic to: convey a read request from a primary DMA controller of the plurality of DMA controllers to a source memory device of the plurality of memory devices; and convey a read response from the source memory device to the primary DMA controller and one or more secondary DMA controllers of the plurality of DMA controllers. convey a read request from a primary DMA controller of the plurality of DMA controllers to a source memory device of the plurality of memory devices; and convey a read response from the source memory device to the primary DMA controller and one or more secondary DMA controllers of the plurality of DMA controllers.
Support for helmets formed from a single body defining an upper surface provided with adhesive that can be fixed to the outside of a helmet and a lower surface, characterized in that said body comprises three legs (3, 4) attached to one another at one of their ends, defining a Y shape.
A branching filter comprising: a band pass filter unit (16, 17; 18, 20; 21, 22; 23, 24) having two ports on an antenna side and one port on a radio device side for separating an outgoing wave from an incoming wave; and an antenna duplexer for transmitting an outgoing wave from said band pass filter unit (16, 17; 18, 20; 21, 22; 23, 24) to said antenna, and transmitting an incoming wave from said antenna to said band pass filter unit (16, 17; 18, 20; 21, 22; 23, 24), wherein said band pass filter unit includes a transmission filter (16; 18; 21; 23) for passing therethrough only a particular transmission frequency, and a reception filter (17; 20; 22; 24) for passing therethrough only a particular reception frequency, and said transmission filter and said reception filter have their terminals on the radio device side connected in common to form said one port (P1, P2, P3, P4) of said band pass filter unit on the radio device side, characterized in that said branching filter comprises a plurality of said band pass filter units (16, 17; 18, 20; 21, 22; 23, 24), and said antenna duplexer comprises one single antenna port which is connectable or connected to one single antenna. a band pass filter unit (16, 17; 18, 20; 21, 22; 23, 24) having two ports on an antenna side and one port on a radio device side for separating an outgoing wave from an incoming wave; and an antenna duplexer for transmitting an outgoing wave from said band pass filter unit (16, 17; 18, 20; 21, 22; 23, 24) to said antenna, and transmitting an incoming wave from said antenna to said band pass filter unit (16, 17; 18, 20; 21, 22; 23, 24), wherein said band pass filter unit includes a transmission filter (16; 18; 21; 23) for passing therethrough only a particular transmission frequency, and a reception filter (17; 20; 22; 24) for passing therethrough only a particular reception frequency, and said transmission filter and said reception filter have their terminals on the radio device side connected in common to form said one port (P1, P2, P3, P4) of said band pass filter unit on the radio device side, characterized in that said branching filter comprises a plurality of said band pass filter units (16, 17; 18, 20; 21, 22; 23, 24), and said antenna duplexer comprises one single antenna port which is connectable or connected to one single antenna.
A laminate comprising: a resin film that can function as a waterproof air-permeable membrane and/or a waterproof sound-transmitting membrane; and a separator, wherein the resin film and the separator are joined to each other by an adhesive layer, and a peel surface formed when the separator is peeled from the resin film is positioned between the resin film and the adhesive layer. a resin film that can function as a waterproof air-permeable membrane and/or a waterproof sound-transmitting membrane; and a separator, wherein the resin film and the separator are joined to each other by an adhesive layer, and a peel surface formed when the separator is peeled from the resin film is positioned between the resin film and the adhesive layer.
Method for connecting at least two profile parts (1, 34), in particular for producing door frames or door leaves, or window frames or window casements, consisting of a thermoplastic material, wherein, in an incipient-melting step, the at least two profile parts, secured on profile supports which can be displaced relative to one another, are incipiently melted in each case on an end-side joining surface by means of a heating element and, once the heating element has been removed, in a joining step, they are pressed against one another, by way of the incipiently melted joining surfaces, until such time as the molten materials brought into contact with one another there cool and solidify to form a weld connection, wherein a limiting element with a separating edge rests and/or butts against at least one outer surface of at least one profile part, and this limiting element controls and/or limits the escape of excess molten material at the transition of the respective joining surface to the outer surface of the profile part during the incipient-melting step, wherein, in an isolating step which takes place prior to the joining step, a mating tool (6, 29) is guided through the molten material along the separating edge of the limiting element, in order to isolate the excess molten material which has escaped over the separating edge, wherein the mating tool (6, 29) performs a rolling movement.
A reception apparatus comprising: a reception portion configured to receive Audio-Video, AV, content from a digital TV broadcast; a trigger extraction portion configured to extract trigger information from said AV content for operating an application program executed in interlocked relation to said AV content; characterised by a table acquisition portion configured to acquire a correspondence table from a server via the Internet, and retain said correspondence table in memory, wherein the correspondence table associates said trigger information with commands for controlling the operation of said application program, the commands including at least one of suspension and termination of said application program; a command determination portion configured to determine, based on the acquired correspondence table, at least one command associated with the extracted trigger information among said commands; and a control portion configured to access an application server via the Internet, receive said application program from the application server, retain said application program in memory, execute said application program, and control the operation of said application program in response to the determined at least one command. a reception portion configured to receive Audio-Video, AV, content from a digital TV broadcast; a trigger extraction portion configured to extract trigger information from said AV content for operating an application program executed in interlocked relation to said AV content; characterised by a table acquisition portion configured to acquire a correspondence table from a server via the Internet, and retain said correspondence table in memory, wherein the correspondence table associates said trigger information with commands for controlling the operation of said application program, the commands including at least one of suspension and termination of said application program; a command determination portion configured to determine, based on the acquired correspondence table, at least one command associated with the extracted trigger information among said commands; and a control portion configured to access an application server via the Internet, receive said application program from the application server, retain said application program in memory, execute said application program, and control the operation of said application program in response to the determined at least one command.
A gasification system for bituminous coal with ash content above 15 wt% and the ash having initial deformation temperatures above 1500°C, configured to achieve above 90% carbon conversion, the system comprising: a gasifier configured to combine the bituminous coal and an oxidant to produce gasifier syngas, wherein the gasifier is configured to operate at a temperature of 900°C to 1100°C, the gasifier syngas containing char carbon particles, the gasifier comprising a first-stage cyclone configured to limit exiting char carbon particles greater than for example 50 microns in size, collect at least a portion of the char carbon particles and return it to the gasifier; a partial oxidizer configured to receive the gasifier syngas and converts at least a portion of char carbon particles into syngas to produce partial oxidizer syngas; the partial oxidizer configured to operate at a temperature of 1100°C to 1400°C, wherein the partial oxidizer is configured to operate at a higher temperature than the gasifier; an unwanted species removal system configured to remove at least a portion of the char carbon particles from the partial oxidizer syngas; a syngas cooler configured to cool the partial oxidizer syngas; and a removal system-to-partial oxidizer return feed configured to return at least a portion of the char carbon particles from the removal system to the partial oxidizer. a gasifier configured to combine the bituminous coal and an oxidant to produce gasifier syngas, wherein the gasifier is configured to operate at a temperature of 900°C to 1100°C, the gasifier syngas containing char carbon particles, the gasifier comprising a first-stage cyclone configured to limit exiting char carbon particles greater than for example 50 microns in size, collect at least a portion of the char carbon particles and return it to the gasifier; a partial oxidizer configured to receive the gasifier syngas and converts at least a portion of char carbon particles into syngas to produce partial oxidizer syngas; the partial oxidizer configured to operate at a temperature of 1100°C to 1400°C, wherein the partial oxidizer is configured to operate at a higher temperature than the gasifier; an unwanted species removal system configured to remove at least a portion of the char carbon particles from the partial oxidizer syngas; a syngas cooler configured to cool the partial oxidizer syngas; and a removal system-to-partial oxidizer return feed configured to return at least a portion of the char carbon particles from the removal system to the partial oxidizer.
A cable duct system comprising cable duct elements having guide tracks (21, 22, 23, 24) and at least one coupling element, wherein the cable duct elements can be joined together in their longitudinal direction by means of at least one coupling element and the cable duct elements consist of an approximately U-shaped duct lower part, and in particular a cover that can be arranged thereon, wherein the coupling element can be inserted into the free end regions of the cable duct elements in a releasable and/or slidable manner, wherein the coupling element that is guided on at least one of the side wall at the end regions of one of the cable duct elements comprises at least two spring systems (4, 5), wherein the spring systems (4, 5) are arranged approximately parallel and spaced apart from each other via an aperture, wherein each spring system (4, 5) extends along a longitudinal direction of the plate-shaped coupling element and comprises a first spring element (41, 51) and a second spring element (42, 52), wherein the first spring element (41, 51) extends at an acute angle to the second spring element (42, 52) and the second spring element (42, 52) is spaced apart from the first spring element (41, 51) in the longitudinal direction, wherein the first spring element (41, 51) is affixed to the coupling element only at its first end, and at its second end is connected to a first end of the second spring element (42, 52) and spaced apart therefrom via at least one web (43, 53), which is arranged approximately orthogonally to the second spring element (42, 52), and wherein only the second end of the second spring element (42, 52) is affixed on the coupling element, wherein the web of the first spring system is arranged such that it is spaced apart from the web of the second spring system, wherein the coupling element has at least a first guiding system arranged approximately parallel to the spring systems (4, 5), which ensures that the coupling element can be arranged such that it can be readily slid in the guide tracks (21, 22, 23, 24) of one of the cable duct elements in a plane parallel to the side wall, and in the assembled state the coupling element is positioned in a non-slidable manner at the end face of the side wall of one of the cable duct elements via the first spring system and is fixed on the side wall of this cable duct element via the second spring system.
A head-up display device comprising: a display configured to emit a display light ray therefrom, a reflection member (30, 130, 230, 330) configured to pivot around a rotation axis and reflect the display light ray to project a display image; and a housing configured to accommodate the reflection member (30, 130, 230, 330), wherein the reflection member (30, 130, 230, 330) has a plurality of ribs (33a-33e, 133a-133e) protruding from a surface (30b, 130b, 230b, 330b) on an opposite side to a reflection surface (30a, 130a) which reflects the display light ray, and the plurality of ribs (33a-33e, 133a-133e) are formed along a direction in which the rotation axis extends, and have a portion in which a height on an outer side in a rotational direction centered at the rotation axis is lower than that on an inner side in the rotational direction. a display configured to emit a display light ray therefrom, a reflection member (30, 130, 230, 330) configured to pivot around a rotation axis and reflect the display light ray to project a display image; and a housing configured to accommodate the reflection member (30, 130, 230, 330), wherein the reflection member (30, 130, 230, 330) has a plurality of ribs (33a-33e, 133a-133e) protruding from a surface (30b, 130b, 230b, 330b) on an opposite side to a reflection surface (30a, 130a) which reflects the display light ray, and the plurality of ribs (33a-33e, 133a-133e) are formed along a direction in which the rotation axis extends, and have a portion in which a height on an outer side in a rotational direction centered at the rotation axis is lower than that on an inner side in the rotational direction.
A feedback circuit for a zero-voltage-switching converter for feeding a load circuit (2, 3), the zero-voltage-switching converter comprising a chopper, a driver for driving the chopper, and a resonant tank, the said feedback circuit comprises an arrangement for receiving a first signal derived from a resonant tank signal and for receiving a second signal derived from a load circuit signal and for generating, in response to the first and second signals, a control signal for the driver, the feedback circuit being oscillatorless, the arrangement comprising - an error circuit (12, 15) for generating an error signal, in response to the second signal and a reference signal, and - a combiner circuit (13, 16, 17) for generating the control signal, in response to the first signal and the error signal. - an error circuit (12, 15) for generating an error signal, in response to the second signal and a reference signal, and - a combiner circuit (13, 16, 17) for generating the control signal, in response to the first signal and the error signal.