mhurhangee/ep-ind-claims huggingface dataset:
A tilting mechanism of a vehicle having two front wheels (rw, lw), the vehicle comprising a vehicle frame unit, the vehicle frame unit having a front side that is provided with a steering support member, the steering support member being rotatably provided with a tilting mechanism, the steering support member receiving a steering column to penetrate through an interior thereof; the tilting mechanism comprising an upper crossbar rotatably mounted to the steering support member of the vehicle frame unit, a lower crossbar rotatably mounted to the steering support member and located below the upper crossbar, a right-side bar and a left-side bar pivotally connected to two ends of the upper crossbar respectively, two ends of the lower crossbar being pivotally connected to the right-side bar and the left-side bar, the right-side bar receiving a right-side axle therein to extend therethrough, the left-side bar receiving a left-side axle therein to extend therethrough; a right-side supporting piece coupled to the right-side axle of the right-side bar including a right-side shock absorber, a left-side supporting piece coupled to the left-side axle of the left-side bar and including a left-side shock absorber, a central supporting member coupled to a lower portion of the steering column, characterized in that the right-side bar is pivotally jointed, at an upper portion thereof, to the upper crossbar; the left-side bar is pivotally jointed, at an upper end thereof, to the upper crossbar; the right-side bar and the left-side bar are provided with bearing units, the right-side and left-side bars (53, 54) being each provided with an upper supporting member (531, 541), the bearing units being mounted to the upper supporting members (531, 541); pivotal joint points (b) between the left-side and right-side bars (54, 53) and the upper crossbar form rotation center axes (a), the bearing units being located below the rotation center axes (a); and the right-side bar and the left-side bar have upper ends that are not projecting beyond an upper end face of the upper crossbar.
Connecting element (21a; 21b) for an alternator of an electric energy production plant; the alternator extending along a longitudinal axis and comprising a shaft, a stator, and a rotor; the connecting element (21a; 21b) comprising a first end portion couplable to a main conductor arranged inside an axial seat of the rotor of the alternator and a second end portion couplable to a respective conducting element (8; 15); wherein the second end portion of the connecting element (21a; 21b) is provided with at least one sealing element having a substantially C-shaped cross section; wherein the sealing element is a sealing ring arranged in an annular seat (47; 48) of the second end portion; wherein the annular seat (47; 48) is open along the periphery of the connecting element (21a; 21b) and is in communication with an area extending between the rotor and the stator; the sealing element comprising two sealing lips and an annular throat, which defines the inner space of the C-shaped cross section extending between the sealing lips; the sealing element being arranged in the annular seat (47; 48) so that the throat is in communication with the open portion of the annular seat (47; 48), and so that the throat is exposed to the area extending between the rotor and the stator.
System for hooking and unhooking a bag with respect to a fixed structure of a motorcycle, comprising a tubular hooking framework, intended to be constrained to said fixed structure, and a main hooking plate, intended to be constrained to the bag, said main hooking plate being provided with first fixed hook-shaped hooking means, suitable to hold a first portion of the tubular hooking framework, and second fixed support means, suitable to receive a second portion of the tubular hooking framework opposite to said first portion, the system comprising moveable hooking means positioned at said second fixed support means and able to be rotatably actuated, by means of a lock mechanism, between a first operative position, to hold said second portion of the tubular hooking framework and keep said tubular hooking framework hooked to said main hooking plate, and a second non-operative position, to release said second portion of the tubular hooking framework and, thus, obtain the disengagement of the bag from the motorcycle, characterised in that said lock mechanism is joined integrally to a sub-lock plate in such a manner that, by rotating a key of said lock mechanism, said sub-lock plate is adapted to rotate with the same angular movement of the key, so as to actuate said moveable hooking means obtained in the form of a hook, wherein said hook is elastically connected to said main hooking plate by means of a coil spring which, when not stretched, is adapted to maintain said hook in its non-operative position, wherein said hook is inserted into a respective seat obtained on the front wall of said main hooking plate, the system further comprises a peg, fitted through an opening made on a wall of said main hooking plate, passing through said hook into a through hole provided therein and fitting into said main hooking plate to ensure the rotatable coupling of said hook with said main hooking plate, and wherein said sub-lock plate is provided with an inclined surface which, when it is put in rotation, is capable of engaging with a lip obtained on the rear wall of said hook, the action of the inclined surface on the lip is adapted to cause the rotation of said hook around the respective peg, overcoming the action of said spring, thereby moving said hook to its operative position.
Capacitive MEMS sensor device for sensing a mechanical quantity and comprising: - a capacitive MEMS sensing element having two plates (11,14) arranged in parallel at a distance do that varies in response to said mechanical quantity and for converting the sensed mechanical quantity into an electrical quantity, - a first bias voltage unit for supplying a first bias voltage (V bias1) to a first plate of said MEMS sensing element, and - a signal processing unit for processing said electrical quantity into an output signal (V OUT), characterized by: - a second bias voltage unit for supplying a second bias voltage (V bias2) to the second plate of said MEMS sensing element, - a comparator unit for comparing said output signal (V OUT) to a reference signal (V ref) for detection of an overload condition of said MEMS sensing element and for outputting a comparator signal, - a control unit for controlling the discharge of said MEMS sensing element in case of an overload condition signalled by said comparator signal by connecting, in case of an overload condition, said first plate to a first discharge terminal during a first time interval and said second plate to a second discharge terminal during a second time interval; wherein said first and second time intervals (T1, T2) have substantially the same start time and wherein said first time interval is shorter than said second time interval. - a capacitive MEMS sensing element having two plates (11,14) arranged in parallel at a distance do that varies in response to said mechanical quantity and for converting the sensed mechanical quantity into an electrical quantity, - a first bias voltage unit for supplying a first bias voltage (V bias1) to a first plate of said MEMS sensing element, and - a signal processing unit for processing said electrical quantity into an output signal (V OUT), - a second bias voltage unit for supplying a second bias voltage (V bias2) to the second plate of said MEMS sensing element, - a comparator unit for comparing said output signal (V OUT) to a reference signal (V ref) for detection of an overload condition of said MEMS sensing element and for outputting a comparator signal, - a control unit for controlling the discharge of said MEMS sensing element in case of an overload condition signalled by said comparator signal by connecting, in case of an overload condition, said first plate to a first discharge terminal during a first time interval and said second plate to a second discharge terminal during a second time interval;
Method for controlling a parking brake for a vehicle, wherein the parking brake has at least one spring mechanism and is assigned to at least one axle of the vehicle, wherein the method has the following steps: reading in a request signal which represents a requested activation of the parking brake, and travel data of the vehicle; and generating an activation signal for activating the parking brake using the request signal and the travel data, where the activation signal brings about pulsed activation of the parking brake for an adjustable time period, in order to control the parking brake, characterised in that in the step of generating an activation signal is generated which brings about, on expiry of the adjustable time period, a permanent activation of the parking brake as a function of the request signal. reading in a request signal which represents a requested activation of the parking brake, and travel data of the vehicle; and generating an activation signal for activating the parking brake using the request signal and the travel data, where the activation signal brings about pulsed activation of the parking brake for an adjustable time period, in order to control the parking brake, characterised in that in the step of generating an activation signal is generated which brings about, on expiry of the adjustable time period, a permanent activation of the parking brake as a function of the request signal.
A solder alloy, consisting of: 2.5-4.5 wt.% of Ag; 0.6-2.0 wt.% of Cu; 5.0-6.0 wt.% of Sb; at least one of the following: 0.1 to less than 0.5 wt.% of Bi; and 0.1-4.5 wt.% of In; optionally, 0.001-0.2 wt.% of Ni, or Co, or both; and a remainder of Sn. 2.5-4.5 wt.% of Ag; 0.6-2.0 wt.% of Cu; 5.0-6.0 wt.% of Sb; at least one of the following: 0.1 to less than 0.5 wt.% of Bi; and 0.1-4.5 wt.% of In; 0.1 to less than 0.5 wt.% of Bi; and 0.1-4.5 wt.% of In; optionally, 0.001-0.2 wt.% of Ni, or Co, or both; and a remainder of Sn.
A bellows member for connecting two plumbing interfaces, the bellows member comprising: a first cuff end; a second cuff end; a central opening; a bellows body comprising at least one upper convolute, at least one lower convolute, and an outer convolute, wherein the at least one upper convolute comprises a set of upper convolutes and wherein the at least one lower convolute comprises a set of lower convolutes, further comprising a space between each upper convolute in the set of upper convolutes and a space between each lower convolute in the set of lower convolutes, characterized in that the at least one upper convolute and the at least one lower convolute comprise ridges that create the appearance of rings that encircle the central opening, wherein the space between each convolute (34, 36) allows the rings formed by the convolutes (34, 36) to compress or expand horizontally. a first cuff end; a second cuff end; a central opening; a bellows body comprising at least one upper convolute, at least one lower convolute, and an outer convolute, wherein the at least one upper convolute comprises a set of upper convolutes and wherein the at least one lower convolute comprises a set of lower convolutes, further comprising a space between each upper convolute in the set of upper convolutes and a space between each lower convolute in the set of lower convolutes, characterized in that the at least one upper convolute and the at least one lower convolute comprise ridges that create the appearance of rings that encircle the central opening, wherein the space between each convolute (34, 36) allows the rings formed by the convolutes (34, 36) to compress or expand horizontally.
A method for transferring heat from flue gas into fluid, comprising: - passing the flue gas through a flue gas scrubber (205, 305), - cooling the flue gas in the flue gas scrubber (205, 305) with scrubbing liquid, - circulating scrubbing liquid from the flue gas scrubber (205, 305) into a first heat exchanger (210, 310) and back to the flue gas scrubber (205, 305), and - passing a first portion of the fluid through the first heat exchanger (210, 310), whereby heat from the scrubbing liquid is transferred into the first portion of the fluid; characterised in that the method comprises: - before passing the first portion of the fluid through the first heat exchanger (210, 310), transferring heat from the first portion of the fluid into a second portion of the fluid. - passing the flue gas through a flue gas scrubber (205, 305), - cooling the flue gas in the flue gas scrubber (205, 305) with scrubbing liquid, - circulating scrubbing liquid from the flue gas scrubber (205, 305) into a first heat exchanger (210, 310) and back to the flue gas scrubber (205, 305), and - passing a first portion of the fluid through the first heat exchanger (210, 310), whereby heat from the scrubbing liquid is transferred into the first portion of the fluid; - before passing the first portion of the fluid through the first heat exchanger (210, 310), transferring heat from the first portion of the fluid into a second portion of the fluid.
A method of validating a signal from a first flame monitoring device (12, 13), comprising a UV sensor, of a hydrogen fuelled heater, comprising at least the following steps: a) detecting a parameter that allows conclusions to be drawn about the temperature of a flame of the heater, b) comparing the parameter detected in step a) with a predetermined reference range, c) operating the heater with a second device for flame monitoring or switching off the heater if the parameter detected in step a) is outside a predetermined range. a) detecting a parameter that allows conclusions to be drawn about the temperature of a flame of the heater, b) comparing the parameter detected in step a) with a predetermined reference range, c) operating the heater with a second device for flame monitoring or switching off the heater if the parameter detected in step a) is outside a predetermined range.
A deep dyeing process of polyamide or polyolefin, comprising the steps of: adding a compatibilizer precursor to the polyamide or polyolefin, and using a mixing tool to perform a first modification at a predetermined temperature by a predetermined round-per-minute extrusion and mixing process; adding an amino, hydroxyl or epoxy group containing chemicals to polyamide or polyolefin modified according to the first modification, and then using the mixing tool to perform a second modification at the predetermined temperature by the predetermined round-per-minute extrusion and mixing process; and melt spinning the polyamide or polyolefin modified according to the second modification, and then using a reactive dye and/or an acid dye for performing the dyeing process to complete the deep dyed polyamide and polyolefin, wherein the compatibilizer precursor is one selected from a carboxyl polymer, an anhydride polymer, a hydroxyl polymer, an epoxy polymer and a cyanate-based polymer. adding a compatibilizer precursor to the polyamide or polyolefin, and using a mixing tool to perform a first modification at a predetermined temperature by a predetermined round-per-minute extrusion and mixing process; adding an amino, hydroxyl or epoxy group containing chemicals to polyamide or polyolefin modified according to the first modification, and then using the mixing tool to perform a second modification at the predetermined temperature by the predetermined round-per-minute extrusion and mixing process; and melt spinning the polyamide or polyolefin modified according to the second modification, and then using a reactive dye and/or an acid dye for performing the dyeing process to complete the deep dyed polyamide and polyolefin, wherein the compatibilizer precursor is one selected from a carboxyl polymer, an anhydride polymer, a hydroxyl polymer, an epoxy polymer and a cyanate-based polymer.
A chromatographic process for purification of insulin analogue, atosiban or eptifibatide from a mixture having at least one related impurity, at a pH ranging from about 2.5 to about 8.5, said process comprising steps of: a) packing RP-HPLC column with silica (C 4 -C 18) based resin, equilibrated with about 5% to about 85 % organic modifier, wherein the organic modifier is selected from a group comprising Acetonitrile, Ethanol, Methanol, Isopropyl alcohol and Dimethylformamide; b) loading the insulin analogue, atosiban or eptifibatide mixture on the column at a flow rate of about 180 cm/hr to about 360 cm/hr; c) washing the column with an ion pairing agent having a concentration ranging from about 0.05% to about 1% in combination with the organic modifier having a concentration ranging from about 5% to about 85%, at a pH ranging from about 2.5 to about 8.5, wherein the ion pairing agent is selected from a group consisting of Hexane sulfonic acid, Trifluoro acetic acid, Pentafluoro propanoic acid, Triethyl amine and Heptafluorobutyric acid, and; d) performing a linear gradient of about 10% to about 70% for eluting the purified insulin analogue, atosiban or eptifibatide from the column. a) packing RP-HPLC column with silica (C 4 -C 18) based resin, equilibrated with about 5% to about 85 % organic modifier, wherein the organic modifier is selected from a group comprising Acetonitrile, Ethanol, Methanol, Isopropyl alcohol and Dimethylformamide; b) loading the insulin analogue, atosiban or eptifibatide mixture on the column at a flow rate of about 180 cm/hr to about 360 cm/hr; c) washing the column with an ion pairing agent having a concentration ranging from about 0.05% to about 1% in combination with the organic modifier having a concentration ranging from about 5% to about 85%, at a pH ranging from about 2.5 to about 8.5, wherein the ion pairing agent is selected from a group consisting of Hexane sulfonic acid, Trifluoro acetic acid, Pentafluoro propanoic acid, Triethyl amine and Heptafluorobutyric acid, and; d) performing a linear gradient of about 10% to about 70% for eluting the purified insulin analogue, atosiban or eptifibatide from the column.
Method for contactlessly determining internal degrees of freedom of a body, which represent positions and orientations of moving parts of the body or its deformation in relation to a reference model in a body coordinate system, in three-dimensional space, in which method an imaging sensor captures the body in a rad-D image, characterized in that external degrees of freedom of the body, which describe the position and orientation as a whole in space, are also determined contactlessly, and an evaluation unit evaluates the rad-D image and identifies characteristic object points thereon which in each case represent a body part or are associated therewith, and returns a list of pixel coordinates and class identifiers which indicate the association with the body part or the representation of the body part for the identified characteristic object points, the evaluation unit linking the pixel coordinates determined in this way with the corresponding distance values and, taking into account internal degrees of freedom of the depth camera, determining therefrom the associated three-dimensional coordinates in a camera coordinate system and interpreting the body parts as punctiform objects, as spatial objects or as uniform bodies, whereupon the evaluation unit determines a body coordinate system with respect to an origin point and equates the internal degrees of freedom of the body with position data of the characteristic object points with respect to this coordinate system and equates the external degrees of freedom with position data of the body coordinate system in the camera coordinate system.
Connector for connecting an electric cable to a terminal, said connector, comprising a tubular body that forms a cable connection portion suitable for receiving the electric cable and a terminal connection portion suitable for being connected in contact with the terminal, wherein the tubular body is a multi-layer tubular body having an inner layer of a first conductive metal that forms an inner surface of the tubular body and an outer layer of a second conductive metal different from the first conductive metal and that forms an outer surface of the tubular body, in which the outer surface forms a terminal contact surface of the terminal connection portion and the inner surface forms a cable contact surface of The cable connection portion characterized in that the tubular body is a multi-layer tube selected from the group consisting of: drawn multi-layer tubes, coextruded multi-layer tubes, laminated multi-layer tubes, and said outer and inner layers are metallurgically bonded. drawn multi-layer tubes, coextruded multi-layer tubes, laminated multi-layer tubes, and said outer and inner layers are metallurgically bonded.
A method for improving the coaxiality and resilience of a cone connection comprising a receptacle and an expandable or compressible sleeve with longitudinal slots, the radii of the outer cone (2a, 1b) always being equal to or greater than the radii of an inner cone (1a, 2g), the cones being machined on a machine tool, which radial infeed is carried out via an additional control, which generates a radially variable, sinusoidal, synchronous and position-oriented additional movement aligned to the work piece rotational speed and web sequence.
A solid catalyst component for the (co)polymerization of olefins CH 2 =CHR, in which R is a hydrocarbyl radical with 1-12 carbon atoms, optionally in mixture with ethylene, comprising Ti, Mg, Cl, and an electron donor compound having a porosity determined by mercury method and deriving from pore with radius equal to or less than 1 μm of at least 0.2 cm 3 /g and characterized by the fact that it further comprises Cu oxide, with the proviso that when the electron donor compound is selected from esters of phthalic acids, the porosity is of at least 0.45 cm 3 /g.
A coating composition comprising: a copolymer comprising alkylene monomers and unsaturated acid monomers; and at least one phyllosilicate having a shape factor equal to or greater than about 40; wherein shape factor is a measure of an average value (on a weight average basis) of the ratio of mean particle diameter to particle thickness for a population of particles measured by electrical conductivity. a copolymer comprising alkylene monomers and unsaturated acid monomers; and at least one phyllosilicate having a shape factor equal to or greater than about 40; wherein shape factor is a measure of an average value (on a weight average basis) of the ratio of mean particle diameter to particle thickness for a population of particles measured by electrical conductivity.