mhurhangee/ep-ind-claims huggingface dataset:
Measuring device comprising: - a workpiece holder, - a probe unit moveable in a moving direction, wherein the probe unit comprises a probe arm that comprises at its free probe end a first probe element orientated orthogonal to the probe arm and a second probe element orientated in opposite direction compared to the first probe element, and - a clamping device in which a support of the workpiece holder is clamped, characterized in that the workpiece holder is configured to hold a workpiece having two workpiece surfaces (24a, 24b) to be measured at opposite workpiece sides during a measurement with the probe unit that is moveable along a workpiece surface (24a, 24b), and in that the workpiece holder comprises: the support that is configured to be connected with the clamping device of the measuring device, a holding body that is attached with an attachment end at the support and that extends from the support to a free holding end, which is arranged with a distance from the attachment end in the direction of a longitudinal axis of the workpiece holder, wherein at the holding end at least one holding surface (42, 43) is present, which is configured for contact at a peripheral region of the workpiece, wherein a free space through which the longitudinal axis extends is present in the holding body and that comprises at least one transverse channel having a peripheral opening, through which the free space is accessible radial with regard to the longitudinal axis from outside, and wherein the peripheral opening and the transverse channel are configured so that the probe unit can be arranged through the peripheral opening and via the transverse channel in the free space an can be moved there. - a workpiece holder, - a probe unit moveable in a moving direction, wherein the probe unit comprises a probe arm that comprises at its free probe end a first probe element orientated orthogonal to the probe arm and a second probe element orientated in opposite direction compared to the first probe element, and - a clamping device in which a support of the workpiece holder is clamped, the support that is configured to be connected with the clamping device of the measuring device, a holding body that is attached with an attachment end at the support and that extends from the support to a free holding end, which is arranged with a distance from the attachment end in the direction of a longitudinal axis of the workpiece holder, wherein at the holding end at least one holding surface (42, 43) is present, which is configured for contact at a peripheral region of the workpiece, wherein a free space through which the longitudinal axis extends is present in the holding body and that comprises at least one transverse channel having a peripheral opening, through which the free space is accessible radial with regard to the longitudinal axis from outside, and wherein the peripheral opening and the transverse channel are configured so that the probe unit can be arranged through the peripheral opening and via the transverse channel in the free space an can be moved there.
An end effector for a surgical tool, comprising: opposing first and second jaws (210, 212), and a knife slot defined in one or both of the first and second jaws; a knife extendable through the knife slot and operatively coupled to a drive rod at a retention feature secured to a distal end of the drive rod; an end notch defined in the distal end of the drive rod and extending through a distal end of the retention feature; and an end tab defined by the knife and sized to be received within the end notch to laterally stabilize the knife as mounted to the retention feature, wherein a central notch is defined in the retention feature between a proximal end of the retention feature and the distal end of the retention feature, wherein the central notch extends into the drive rod, and wherein the knife defines a locking feature receivable within the central notch to axially constrain the knife to the retention feature and the drive rod. opposing first and second jaws (210, 212), and a knife slot defined in one or both of the first and second jaws; a knife extendable through the knife slot and operatively coupled to a drive rod at a retention feature secured to a distal end of the drive rod; an end notch defined in the distal end of the drive rod and extending through a distal end of the retention feature; and an end tab defined by the knife and sized to be received within the end notch to laterally stabilize the knife as mounted to the retention feature, wherein a central notch is defined in the retention feature between a proximal end of the retention feature and the distal end of the retention feature, wherein the central notch extends into the drive rod, and wherein the knife defines a locking feature receivable within the central notch to axially constrain the knife to the retention feature and the drive rod.
A control system for a wind turbine generator, the wind turbine generator comprising a reactive power controller, the control system comprising - a QV limit module configured to define predetermined reactive limits dependent on an output voltage (U_WTG) of the wind turbine generator, wherein the QV limit module is configured to receive a reactive reference (Qref) from an external source (520, 220), and wherein the QV limit module is configured to output the reactive reference as an output reactive reference (QrefQV) and, in case the reactive reference (Qref) exceeds one of the predetermined reactive limits, the QV limit module is configured to determine the output reactive reference (QrefQV) by limiting the reactive reference (Qref) to the exceeded predetermined reactive limit, and wherein the reactive power controller is configured to control generation of reactive power from a power generator system of the wind turbine generator dependent on the output reactive reference (QrefQV) or other reactive reference (QrefQP, QrefXX) being dependent on the output reactive reference (QrefQV), and - an update module configured to supply the predetermined reactive limit (QlimitQV) for an actual output voltage characterised in that the update module supplies the predetermined reactive limit (QlimitQV) back to the external source. - a QV limit module configured to define predetermined reactive limits dependent on an output voltage (U_WTG) of the wind turbine generator, wherein the QV limit module is configured to receive a reactive reference (Qref) from an external source (520, 220), and wherein the QV limit module is configured to output the reactive reference as an output reactive reference (QrefQV) and, in case the reactive reference (Qref) exceeds one of the predetermined reactive limits, the QV limit module is configured to determine the output reactive reference (QrefQV) by limiting the reactive reference (Qref) to the exceeded predetermined reactive limit, and wherein the reactive power controller is configured to control generation of reactive power from a power generator system of the wind turbine generator dependent on the output reactive reference (QrefQV) or other reactive reference (QrefQP, QrefXX) being dependent on the output reactive reference (QrefQV), and - an update module configured to supply the predetermined reactive limit (QlimitQV) for an actual output voltage characterised in that the update module supplies the predetermined reactive limit (QlimitQV) back to the external source.
Fastening device, comprising: - an insertion part having a shaft portion and a head portion; - a base part having an abutment surface and an opposite mounting side; - wherein the base part on the side of the abutment surface comprises a number of protruding latching legs for latching to an opening of a carrier substrate; - wherein the base part is plug-in connectable with the insertion part by inserting the shaft portion into an insertion channel of the base part on the side of the mounting side with an insertion direction, which runs from the mounting side towards the abutment surface, wherein the insertion channel is defined by means of the latching legs; and characterized in that - the fastening device is arranged to be able to engage the head portion of the insertion part plug-in connected with the base part against a carrier substrate latched to the latching legs and further in this case to lead a binder portion over the head portion of the plug-in connected insertion part and to retain at the base part such that the head portion when lashing the binder by means of the binder portion, lead thereover and lashed, is urged in the insertion direction while the base part is urged in the opposite direction. - an insertion part having a shaft portion and a head portion; - a base part having an abutment surface and an opposite mounting side; - wherein the base part on the side of the abutment surface comprises a number of protruding latching legs for latching to an opening of a carrier substrate; - wherein the base part is plug-in connectable with the insertion part by inserting the shaft portion into an insertion channel of the base part on the side of the mounting side with an insertion direction, which runs from the mounting side towards the abutment surface, wherein the insertion channel is defined by means of the latching legs; and - the fastening device is arranged to be able to engage the head portion of the insertion part plug-in connected with the base part against a carrier substrate latched to the latching legs and further in this case to lead a binder portion over the head portion of the plug-in connected insertion part and to retain at the base part such that the head portion when lashing the binder by means of the binder portion, lead thereover and lashed, is urged in the insertion direction while the base part is urged in the opposite direction.
An evacuated blood collection tube comprising: a thermoplastic vessel wall having a top defining an opening, an inside surface defining a lumen, the inside surface comprising: a tie coating of SiO x C y applied by a PECVD coating process, wherein x is from 0.5 to 2.4 and y is from 0.6 to 3, each as determined by XPS, a barrier coating of SiO x applied by a PECVD coating process, wherein x is from 1.5 to 2.9 as determined by XPS, between the tie coating and the lumen, and a pH protective coating of SiO x C y applied by a PECVD coating process, wherein x is from 0.5 to 2.4 and y is from 0.6 to 3, each as determined by XPS, between the barrier coating and the lumen, an outside surface, and a stopper contact area on the inside surface adjacent to the top, the stopper contact area tapered inward between 0.3 and 1.3 degrees. a top defining an opening, an inside surface defining a lumen, the inside surface comprising: a tie coating of SiO x C y applied by a PECVD coating process, wherein x is from 0.5 to 2.4 and y is from 0.6 to 3, each as determined by XPS, a barrier coating of SiO x applied by a PECVD coating process, wherein x is from 1.5 to 2.9 as determined by XPS, between the tie coating and the lumen, and a pH protective coating of SiO x C y applied by a PECVD coating process, wherein x is from 0.5 to 2.4 and y is from 0.6 to 3, each as determined by XPS, between the barrier coating and the lumen, a tie coating of SiO x C y applied by a PECVD coating process, wherein x is from 0.5 to 2.4 and y is from 0.6 to 3, each as determined by XPS, a barrier coating of SiO x applied by a PECVD coating process, wherein x is from 1.5 to 2.9 as determined by XPS, between the tie coating and the lumen, and a pH protective coating of SiO x C y applied by a PECVD coating process, wherein x is from 0.5 to 2.4 and y is from 0.6 to 3, each as determined by XPS, between the barrier coating and the lumen, an outside surface, and a stopper contact area on the inside surface adjacent to the top, the stopper contact area tapered inward between 0.3 and 1.3 degrees.
A hybrid-driven hydraulic working machine comprising: an engine; a hydraulic pump driven rotatably by said engine; an assist electric motor connected to said engine and said hydraulic pump; a plurality of actuators (3a to 3c, 3e, 3f) driven by hydraulic fluid delivered by said hydraulic pump; a plurality of operating devices (4a, 4b) each having an operating member, said operating devices operating said actuators by outputting an operation signal reflecting the operation of said operating member; an engine revolution speed control device that controls the revolution speed of said engine based on said target revolution speed for said engine; and an electric motor control device (11; 11A; 11B; 11C; 11D) that computes differential torque between the absorption torque of said hydraulic pump and target output torque of said engine and that subjects said assist electric motor to power running control and generation control in accordance with the differential torque; characterized in that said hybrid-driven hydraulic working machine further includes: a storage device (11f; 11fA; 11fB) that stores a specific revolution speed of said engine suitable for reducing the emissions of air pollutants contained in exhaust gas from said engine; and an engine revolution speed setting device (11a; 11aB) that sets said specific revolution speed stored in said storage device as a target revolution speed for said engine. an engine; a hydraulic pump driven rotatably by said engine; an assist electric motor connected to said engine and said hydraulic pump; a plurality of actuators (3a to 3c, 3e, 3f) driven by hydraulic fluid delivered by said hydraulic pump; a plurality of operating devices (4a, 4b) each having an operating member, said operating devices operating said actuators by outputting an operation signal reflecting the operation of said operating member; an engine revolution speed control device that controls the revolution speed of said engine based on said target revolution speed for said engine; and an electric motor control device (11; 11A; 11B; 11C; 11D) that computes differential torque between the absorption torque of said hydraulic pump and target output torque of said engine and that subjects said assist electric motor to power running control and generation control in accordance with the differential torque; characterized in that said hybrid-driven hydraulic working machine further includes: a storage device (11f; 11fA; 11fB) that stores a specific revolution speed of said engine suitable for reducing the emissions of air pollutants contained in exhaust gas from said engine; and an engine revolution speed setting device (11a; 11aB) that sets said specific revolution speed stored in said storage device as a target revolution speed for said engine. a storage device (11f; 11fA; 11fB) that stores a specific revolution speed of said engine suitable for reducing the emissions of air pollutants contained in exhaust gas from said engine; and an engine revolution speed setting device (11a; 11aB) that sets said specific revolution speed stored in said storage device as a target revolution speed for said engine.
Transport cylinder for transporting a sheet-format substrate, including at least one channel extending in each case at its outer surface in its axial direction, in each case at least one gripper, which is supported on a shaft, for holding the relevant substrate on the outer surface of this transport cylinder being arranged in the relevant channel, and the relevant channel being covered by a cover at the outer surface of this transport cylinder, characterized in that the relevant cover and/or the shaft supporting the at least one gripper comprise a cooling unit.
A plurality of inorganic dielectric taggent flakes, each being 5-100 microns across, comprising one or more thin film layers, and having a same selected shape, but not including a symbol or logo being magnetic stripes..
Process for preparing compounds of the formula in which X represents alkyl, halogen, alkoxy, haloalkyl or haloalkoxy, Y represents hydrogen, alkyl, alkoxy, halogen, haloalkyl or haloalkoxy, where only one of the radicals X or Y may represent haloalkyl or haloalkoxy, A represents C 1 -C 6 -alkyl, R' represents alkyl, R" represents alkyl, characterized in that initially compounds of the formula (IIa) in which X, Y and A have the meanings mentioned above are converted in the presence of a base into compounds of the formula (IIb) in which X, Y and A have the meanings mentioned above and M represents an alkali metal ion, an ion equivalent of an alkaline earth metal, an ion equivalent of aluminium or an ion equivalent of a transition metal or furthermore represents an ammonium ion where optionally one, two, three or all four hydrogen atoms may be replaced by identical or different radicals from the groups C 1 -C 5 -alkyl, C 1 -C 5 -isoalkyl or C 3 -C 7 -cycloalkyl, each of which may be mono- or polysubstituted by fluorine, chlorine, bromine, cyano, hydroxy or interrupted by one or more oxygen or sulphur atoms, or furthermore represents a cyclic secondary or tertiary aliphatic or heteroaliphatic ammonium ion, for example morpholinium, thiomorpholinium, piperidinium, pyrrolidinium, or in each case protonated 1,4-diazabicyclo[2.2.2]octane (DABCO) or 1,5-diazabicyclo[4.3.0]undec-7-ene, or furthermore represents a heterocyclic ammonium cation, for example in each case protonated pyridine, 2-methylpyridine, 3-methylpyridine, 4-methylpyridine, 2,4-dimethylpyridine, 2,5-dimethylpyridine, 2,6-dimethylpyridine, 5-ethyl-2-methylpyridine, pyrrole, imidazole, quinoline, quinoxaline, 1,2-dimethylimidazole, 1,3-dimethylimidazolium methylsulphate, or furthermore represents a sulphonium ion, or furthermore represents a magnesium halide cation, n represents the number 1 or 2, and reacted further with compounds of the formula in which R' has the meanings given above and Hal represents halogen, to give compounds of the formula in which X, Y, A and R' have the meanings given above, and these are further cyclized to compounds of the formula in which X, Y and A have the meanings given above, and these for their part are reacted with compounds of the formula R"-OH in which R" has the meanings given above. X represents alkyl, halogen, alkoxy, haloalkyl or haloalkoxy, Y represents hydrogen, alkyl, alkoxy, halogen, haloalkyl or haloalkoxy, where only one of the radicals X or Y may represent haloalkyl or haloalkoxy, A represents C 1 -C 6 -alkyl,
A vane assembly for a turbine assembly comprising: an inner endcap; an outer endcap; and a body, said body comprising: a hollow metallic core assembly which is coupled to said inner endcap and said outer endcap, a frame of the metallic core assembly forming at least one main cooling passage; a ceramic shell assembly; and a support assembly disposed between said metallic core assembly and said ceramic shell assembly, wherein the support assembly is a structure selected from the group consisting of: a compliant layer, hard contact points, and a biasing means, wherein said ceramic shell assembly comprises an inner layer of ceramic material and an outer layer of ceramic material, wherein said inner layer is a ceramic matrix composite, wherein said outer layer is an insulating ceramic. an inner endcap; an outer endcap; and a body, said body comprising: a hollow metallic core assembly which is coupled to said inner endcap and said outer endcap, a frame of the metallic core assembly forming at least one main cooling passage; a ceramic shell assembly; and a support assembly disposed between said metallic core assembly and said ceramic shell assembly, wherein the support assembly is a structure selected from the group consisting of: a compliant layer, hard contact points, and a biasing means, wherein said ceramic shell assembly comprises an inner layer of ceramic material and an outer layer of ceramic material, wherein said inner layer is a ceramic matrix composite, wherein said outer layer is an insulating ceramic. a hollow metallic core assembly which is coupled to said inner endcap and said outer endcap, a frame of the metallic core assembly forming at least one main cooling passage; a ceramic shell assembly; and a support assembly disposed between said metallic core assembly and said ceramic shell assembly, wherein the support assembly is a structure selected from the group consisting of: a compliant layer, hard contact points, and a biasing means, wherein said ceramic shell assembly comprises an inner layer of ceramic material and an outer layer of ceramic material, wherein said inner layer is a ceramic matrix composite, wherein said outer layer is an insulating ceramic.
A command device for a watch piece, comprising a command lever able to occupy a first position of rest and, on actuation of a command member, a second actuation position, the device comprising a spring allowing to define a threshold value for the necessary actuation force on said command member so that the command lever passes from its first position to its second position, characterized in that the command lever includes a projecting element cooperating with said spring, said projecting element including a first guiding means (2.1) able to cooperate with at least a second guiding means (3.1.1.1) mounted on a fixed structure of the watch piece.
A cable with a molded resin (1; 10), comprising: a cable comprising an electric wire (21, 22; 24, 25) and a sheath covering the electric wire, the electric wire comprising a central conductor (21a, 22a; 24a, 25a) and an insulation (21b, 22b; 24b, 25b) covering the central conductor; and a molded resin covering a part of the electric wire protruding from the sheath in a longitudinal direction thereof, wherein the electric wire (21, 22; 24, 25) is bent at not less than one bent part (211, 221; 212, 222; 241-244; 251-254), including a first bent part and a second bent part, in the molded resin and the molded resin covers the insulation and the central conductor exposed from the insulation of the part of the electric wire protruding from the sheath, wherein the cable further comprising a sensor connected to an end part of the electric wire (21, 22; 24, 25) in the molded resin, wherein the sensor comprises a measurement part with an element to detect magnetism mounted thereon and a lead terminal (41, 42) disposed at the measurement part, wherein the central conductor (21a, 22a; 24a, 25a) is connected to the lead terminal (41, 42) in the molded resin, and wherein the electric wire comprises extending parts (214, 215, 224, 225, 246a, 246b, 246c, 256a, 256b, 256c) extending in a direction parallel to each other, characterized by the molded resin being apart from the sheath. a cable comprising an electric wire (21, 22; 24, 25) and a sheath covering the electric wire, the electric wire comprising a central conductor (21a, 22a; 24a, 25a) and an insulation (21b, 22b; 24b, 25b) covering the central conductor; and a molded resin covering a part of the electric wire protruding from the sheath in a longitudinal direction thereof, wherein the electric wire (21, 22; 24, 25) is bent at not less than one bent part (211, 221; 212, 222; 241-244; 251-254), including a first bent part and a second bent part, in the molded resin and the molded resin covers the insulation and the central conductor exposed from the insulation of the part of the electric wire protruding from the sheath, wherein the cable further comprising a sensor connected to an end part of the electric wire (21, 22; 24, 25) in the molded resin, wherein the sensor comprises a measurement part with an element to detect magnetism mounted thereon and a lead terminal (41, 42) disposed at the measurement part, wherein the central conductor (21a, 22a; 24a, 25a) is connected to the lead terminal (41, 42) in the molded resin, and wherein the electric wire comprises extending parts (214, 215, 224, 225, 246a, 246b, 246c, 256a, 256b, 256c) extending in a direction parallel to each other, characterized by the molded resin being apart from the sheath.
A solution comprising a composition for use in fabricating opto-electrical devices comprising a triazine host material and a phosphorescent moiety, wherein the triazine host material is a non-polymeric tris-aryltriazine compound with at least one of the aryl groups having at least one solubilizing C 4 -C 20 alkyl chain solubilising substituent bonded thereto and wherein the aryl group is directly bonded to the triazine ring via a carbon atom.