mhurhangee/ep-ind-claims huggingface dataset:
Suspension control for an at least partially muscle-powered two-wheeled vehicle having at least one control device and at least one memory device and having at least one controllable shock absorber comprising two connecting units (101, 102) movable relative to one another, wherein at least one sensor device is provided for sensing measurement data sets (90, 91) at least by way of relative motion of the connecting units (101, 102) to one another and wherein a filtering device is provided for processing the measurement data sets (90, 91), wherein the sensor device is configured to sense a displacement signal during relative motion of the connecting units (101, 102) to one another and is configured showing a resolution of better than 100 μm, wherein the sensor device is configured to sense the displacement signal and shows a frequency higher than 1 kHz wherein a plurality of measurement data sets (90, 91) can be stored in the memory device, wherein at least one measurement data set (92, 93) is stored in the memory device that is derived from a measurement data set (90, 91) sensed by the sensor device during relative motion of the connecting units (101, 102) which are movable relative to one another, and wherein an analyzer is provided which is configured and set up to analyze at least one stored derived data set (92, 93), characterized in that a plurality of filter parameter sets (82, 83) is stored in the memory device and that the analyzer is configured and set up to determine in dependence on the analysis result a filter parameter set (82, 83) from the plurality of filter parameter sets (82, 83) and to derive a control data set (94, 95) from the stored measurement data set (90, 91) by means of the filter parameter set (82, 83) so that the control device controls the shock absorber by means of the control data set (94, 95).
A method in a network node, for adapting a property of source coding to the quality of a communication link in packet switched conversational services in a communication system, the method comprising the following steps: - obtaining information related to the quality of said communication link, - selecting a source coding mode with an associated source coding delay, based on the obtained information and the associated source coding delay, for optimizing a tradeoff between source coding efficiency and transmission efficiency, wherein the selected source coding mode is to be used when source coding voice data to be transmitted over the communication link, and wherein the source coding mode is selected from a set of source coding modes associated with different source coding delays. - obtaining information related to the quality of said communication link, - selecting a source coding mode with an associated source coding delay, based on the obtained information and the associated source coding delay, for optimizing a tradeoff between source coding efficiency and transmission efficiency,
A transverse connector comprising: a cross member including a first end portion and a second end portion; a first ring supported on the first end portion of the cross member; a first connector assembly coupled to the first ring to secure the cross member to the first connector assembly, the first connector assembly configured to selectively and releasably secure to a first bone anchor; and a second connector assembly coupled to the second end portion of the cross member, wherein the first connector assembly includes a mount configured to seat the first connector assembly on the first bone anchor of bone anchors (50, 60); and a screw receivable through the mount, the screw engagable with the first bone anchor; and a nut that threadably engages the screw to selectively secure the first connector assembly to the first bone anchor, characterized in that the nut includes a drive portion and a skirt that extends distally from the drive portion having a distal taper portion that is selectively engagable with the first ring as the nut rotates about the screw. a cross member including a first end portion and a second end portion; a first ring supported on the first end portion of the cross member; a first connector assembly coupled to the first ring to secure the cross member to the first connector assembly, the first connector assembly configured to selectively and releasably secure to a first bone anchor; and a second connector assembly coupled to the second end portion of the cross member, wherein the first connector assembly includes a mount configured to seat the first connector assembly on the first bone anchor of bone anchors (50, 60); and a screw receivable through the mount, the screw engagable with the first bone anchor; and a nut that threadably engages the screw to selectively secure the first connector assembly to the first bone anchor,
A method for selecting a target-binding protein with favorable biophysical properties, comprising a first phase comprising screening a library of protein variants against a target protein using mRNA display to select a population of target-binding protein variants, and a second phase comprising screening at least a portion of the population of target-binding protein variants against the target protein using yeast surface display to select a sub-population of target-binding protein variants with favorable biophysical properties, wherein the favorable biophysical properties are one or more of solubility, thermostability, high expression levels, low levels of aggregation, proper folding and binding specificity, and the library of protein variants is a library of 10 Fn3 variants. a first phase comprising screening a library of protein variants against a target protein using mRNA display to select a population of target-binding protein variants, and a second phase comprising screening at least a portion of the population of target-binding protein variants against the target protein using yeast surface display to select a sub-population of target-binding protein variants with favorable biophysical properties, wherein the favorable biophysical properties are one or more of solubility, thermostability, high expression levels, low levels of aggregation, proper folding and binding specificity, and the library of protein variants is a library of 10 Fn3 variants.
A planar micromechanical actuator adapted for being suspended on opposing suspension zones (10a, 10b), the planar micromechanical actuator comprising: opposing suspension zones (10a, 10b); a neutral axis between the opposing suspension zones (10a, 10b), first to fourth segments (11, 12, 13, 14) into which the planar micromechanical actuator is segmented between the opposing suspension zones (10a, 10b), each comprising a first electrode (11a, 12a, 13a, 14a) and a second electrode (11b, 12b, 13b, 14b) which form a capacitor and are isolatedly affixed to each other at opposite ends of the respective segment along a direction between the opposing suspension zones (10a, 10b) so as to form a gap (11c, 12c, 13c, 14c) between the first (11a, 12a, 13a, 14a) and second (11b, 12b, 13b, 14b) electrode along a thickness direction, the gap (11c, 12c, 13c, 14c) being offset to the neutral axis along the thickness direction, and wherein the first to fourth segments (11, 12, 13, 14) are configured such that the planar micromechanical actuator deflects into the thickness direction by the first and fourth segment (11, 14) bending into the thickness direction and the second and third segments (12, 13) bending contrary to the thickness direction upon a voltage being applied to the first (11a, 12a, 13a, 14a) and second (11b, 12b, 13b, 14b) electrodes of the first to fourth segments (11, 12, 13, 14). opposing suspension zones (10a, 10b); a neutral axis between the opposing suspension zones (10a, 10b), first to fourth segments (11, 12, 13, 14) into which the planar micromechanical actuator is segmented between the opposing suspension zones (10a, 10b), each comprising a first electrode (11a, 12a, 13a, 14a) and a second electrode (11b, 12b, 13b, 14b) which form a capacitor and are isolatedly affixed to each other at opposite ends of the respective segment along a direction between the opposing suspension zones (10a, 10b) so as to form a gap (11c, 12c, 13c, 14c) between the first (11a, 12a, 13a, 14a) and second (11b, 12b, 13b, 14b) electrode along a thickness direction, the gap (11c, 12c, 13c, 14c) being offset to the neutral axis along the thickness direction, and wherein the first to fourth segments (11, 12, 13, 14) are configured such that the planar micromechanical actuator deflects into the thickness direction by the first and fourth segment (11, 14) bending into the thickness direction and the second and third segments (12, 13) bending contrary to the thickness direction upon a voltage being applied to the first (11a, 12a, 13a, 14a) and second (11b, 12b, 13b, 14b) electrodes of the first to fourth segments (11, 12, 13, 14).
A frame error concealment method for an audio signal, comprising: setting a concealment method by setting a regression analysis method to conceal an error of an error frame having the error based on one or more signal characteristics of the error frame; deriving a regression analysis function to predict a parameter of the error frame from one or more parameters of at least one previous good frame using the set regression analysis method; and concealing the error by predicting the parameter of the error frame from the one or more parameters of the at least one previous good frame using the derived regression analysis function, wherein the concealing operation further comprises adjusting the predicted parameter of the error frame to a value included in a predetermined range when the predicted parameter falls outside the predetermined range. setting a concealment method by setting a regression analysis method to conceal an error of an error frame having the error based on one or more signal characteristics of the error frame; deriving a regression analysis function to predict a parameter of the error frame from one or more parameters of at least one previous good frame using the set regression analysis method; and concealing the error by predicting the parameter of the error frame from the one or more parameters of the at least one previous good frame using the derived regression analysis function, wherein the concealing operation further comprises adjusting the predicted parameter of the error frame to a value included in a predetermined range when the predicted parameter falls outside the predetermined range.
A case for storing articles and carrying articles by hand, said case comprising a square or rectangular container having a front-end wall, a rear end wall, a first side wall, a second side wall and a bottom, wherein the container exhibits a handle, a lid having a level surface, two mutual parallel side edges (304, 305), a rear end edge and a front side opposite the rear end edge, wherein the lid further comprises first and second locking tabs (306, 307), arranged to establish a releasable locking engagement between the lid and the container, extending substantially perpendicular to the surface at a distance shorter than the height of the container, thus defining an asymmetric shape, said tabs (306, 307) exhibiting a grip and a hole for a locking strip, said side edges (304, 305) exhibiting numerous guide and stop ridges distanced evenly along the respective side edges (305, 306) and exhibiting a length shorter than a space between lid guide protrusions distributed evenly along an inner side of first and second side walls (203, 204), characterized in that an upper rim of the rear end wall, the first side wall and the second side wall, exhibits a lid guiding groove defined by an outer vertically extending outer wall to the inner side of which said lid guide protrusions are formed, an inner ridge and a horizontal guiding surface located between outer wall and inner ridge, arranged to serve as guiding means for the lid and to lock the lid by establishing engagement between inner ridge and guide and stop ridges, wherein the lid in an assembled configuration together with the container, is located between the guiding surface and the lid guide protrusions. a square or rectangular container having a front-end wall, a rear end wall, a first side wall, a second side wall and a bottom, wherein the container exhibits a handle, a lid having a level surface, two mutual parallel side edges (304, 305), a rear end edge and a front side opposite the rear end edge, wherein the lid further comprises first and second locking tabs (306, 307), arranged to establish a releasable locking engagement between the lid and the container, extending substantially perpendicular to the surface at a distance shorter than the height of the container, thus defining an asymmetric shape, said tabs (306, 307) exhibiting a grip and a hole for a locking strip, said side edges (304, 305) exhibiting numerous guide and stop ridges distanced evenly along the respective side edges (305, 306) and exhibiting a length shorter than a space between lid guide protrusions distributed evenly along an inner side of first and second side walls (203, 204),
A battery pack for a vehicle, comprising: - a battery module including a plurality of secondary battery cells, - a carrier plate with a top surface configured for supporting the battery module, wherein the carrier plate includes an integral cooling channel structure, the integral cooling channel structure having at least one opening at a side wall of the carrier plate, - a liquid cooling circuit being in thermal contact with the battery module, wherein the integral cooling channel structure is part of the cooling circuit and the liquid cooling circuit further includes a coolant distributer configured for tightly connection to the integral cooling channel structure at the opening, and - a coupling member, wherein the coupling member and the side wall of the carrier plate include a pair of corresponding coupling elements configured for establishing a mechanical connection between the coupling member and the carrier plate, and wherein the coupling member further includes mounting brackets for attachment of the coolant distributor. - a battery module including a plurality of secondary battery cells, - a carrier plate with a top surface configured for supporting the battery module, wherein the carrier plate includes an integral cooling channel structure, the integral cooling channel structure having at least one opening at a side wall of the carrier plate, - a liquid cooling circuit being in thermal contact with the battery module, wherein the integral cooling channel structure is part of the cooling circuit and the liquid cooling circuit further includes a coolant distributer configured for tightly connection to the integral cooling channel structure at the opening, and - a coupling member, wherein the coupling member and the side wall of the carrier plate include a pair of corresponding coupling elements configured for establishing a mechanical connection between the coupling member and the carrier plate, and wherein the coupling member further includes mounting brackets for attachment of the coolant distributor.
A process for producing a liquid composition, which comprises holding a fluorinated polymer having -SO 2 F groups at from 140 to 160°C for at least 45 minutes, cooling it to less than 110°C at a rate of at least 50°C/min, converting the -SO 2 F groups in the fluorinated polymer to ion exchange groups to obtain a fluorinated polymer having ion exchange groups, and mixing the fluorinated polymer having ion exchange groups and a liquid medium. holding a fluorinated polymer having -SO 2 F groups at from 140 to 160°C for at least 45 minutes, cooling it to less than 110°C at a rate of at least 50°C/min, converting the -SO 2 F groups in the fluorinated polymer to ion exchange groups to obtain a fluorinated polymer having ion exchange groups, and mixing the fluorinated polymer having ion exchange groups and a liquid medium.
Fastener for fastening an added part to a carrying part, having a top plate on which are integrally formed at least two resilient legs (4, 5) each of which has an outer leg-portion and an inner leg-portion which are connected together by a folded-round portion, each resilient leg (4, 5) having two supporting cheek-pieces (13, 14) which are integrally formed on a leg-portion (8, 12) and which enclose whichever is the other leg-portion (8, 12), each supporting cheek-piece (13, 14) being arranged in an aperture or recess (9, 10) for a supporting cheek-piece, which apertures or recesses (9, 10) for supporting cheek-pieces are made in the outer leg-portion and contain the supporting cheek-pieces (13, 14) integrally formed on the inner leg-portion, the resilient legs (4, 5) each having two blocking cheek-pieces (16, 17) which point in the direction of the other resilient leg (4, 5), the blocking cheek-pieces (16, 17) having at their free ends tongue portions (18, 19) which are in overlapping engagement with the tongue portions (18, 19) of the blocking cheek-pieces (16, 17) integrally formed on the resilient leg (4, 5) situated opposite, those edges of the supporting cheek-pieces (13, 14) which face towards the folded-round portions and those edges of the apertures or recesses (9, 10) for supporting cheek-pieces which face towards the top plate being spaced apart from one another, when the resilient legs (4, 5) are in a relaxed position, by not more than a distance corresponding to the thickness of the material of the supporting cheek-pieces (13, 14).
An aircraft comprising a fuselage and a wing, the fuselage comprising a rear part of fuselage and a tail, said aircraft also comprising a propulsion system comprising: - a first propulsion device located at the rear part of said fuselage and consisting of at least one BLI propeller comprising a fan; - a second propulsion device consisting of at least one dual-flow turbojet engine; and - a transmission device coupling the first and second propulsion devices in order to transmit a part of the energy generated by the second propulsion device to the first propulsion device, said second propulsion device thus generating the energy required to rotate the fan of the BLI propeller(s); wherein the thrust produced by the first and second propulsion devices contributes to generating the total thrust of the aircraft; said propulsion system being such that: said at least one dual-flow turbojet engine constituting the second propulsion device is located on at least one side of the rear part of the fuselage between the tail of the fuselage and the wing of the aircraft, the first propulsion device generates between 20% and 80% of the total thrust of the aircraft; characterised in that the transmission device incorporates at least one intermittent safety device capable of interrupting or reducing to a minimum the transmission of mechanical energy in the event of an overload and of returning the transmission of mechanical energy to normal operation when the overload disappears. - a first propulsion device located at the rear part of said fuselage and consisting of at least one BLI propeller comprising a fan; - a second propulsion device consisting of at least one dual-flow turbojet engine; and - a transmission device coupling the first and second propulsion devices in order to transmit a part of the energy generated by the second propulsion device to the first propulsion device, said second propulsion device thus generating the energy required to rotate the fan of the BLI propeller(s); wherein the thrust produced by the first and second propulsion devices contributes to generating the total thrust of the aircraft; said propulsion system being such that: said at least one dual-flow turbojet engine constituting the second propulsion device is located on at least one side of the rear part of the fuselage between the tail of the fuselage and the wing of the aircraft, the first propulsion device generates between 20% and 80% of the total thrust of the aircraft; characterised in that the transmission device incorporates at least one intermittent safety device capable of interrupting or reducing to a minimum the transmission of mechanical energy in the event of an overload and of returning the transmission of mechanical energy to normal operation when the overload disappears.
A prosthetic ankle, comprising: a housing adapted for coupling to a foot blade; a curved cylinder in the housing; an ankle component adapted for coupling to a pylon coupling, the ankle component being pivotally attached to the housing at the center of curvature of the cylinder; the ankle component being coupled to a curved rod and piston within the cylinder defining front and rear chambers (501, 500) within the cylinder in fluid communication with one another; and whereby fluid is exchanged between the front and rear chambers (501, 500) to control dampening as the ankle pivots between plantarflexion and dorsiflexion. a housing adapted for coupling to a foot blade; a curved cylinder in the housing; an ankle component adapted for coupling to a pylon coupling, the ankle component being pivotally attached to the housing at the center of curvature of the cylinder; the ankle component being coupled to a curved rod and piston within the cylinder defining front and rear chambers (501, 500) within the cylinder in fluid communication with one another; and whereby fluid is exchanged between the front and rear chambers (501, 500) to control dampening as the ankle pivots between plantarflexion and dorsiflexion.
A method for producing a molded body (10; 517), in which: - individual, lose fibres are spread with a defined layer thickness for forming a fibre layer (10, 16, 18; 519), - energy is selectively supplied to the generated fibre layer (14, 16, 18; 519), so that lose fibres in the fibre layer (14, 16, 18; 519) are connected to each other in predetermined regions, at least in fibre sections, hence forming solidified portions in said fibre layer (14, 16, 18; 519), thereby connecting said solidified portions of the fibre layer (14, 16, 18; 519) with the solidified portions of an already existing, adjacent fibre layer, and - the above method steps are repeated until a three-dimensional molded body (10; 517), which is formed in layers and which has a desired contour, is produced. - individual, lose fibres are spread with a defined layer thickness for forming a fibre layer (10, 16, 18; 519), - energy is selectively supplied to the generated fibre layer (14, 16, 18; 519), so that lose fibres in the fibre layer (14, 16, 18; 519) are connected to each other in predetermined regions, at least in fibre sections, hence forming solidified portions in said fibre layer (14, 16, 18; 519), thereby connecting said solidified portions of the fibre layer (14, 16, 18; 519) with the solidified portions of an already existing, adjacent fibre layer, and - the above method steps are repeated until a three-dimensional molded body (10; 517), which is formed in layers and which has a desired contour, is produced.