mhurhangee/ep-ind-claims huggingface dataset:
A locking mechanism for a product-dispensing device, the locking mechanism comprising: a locking gear rotatable between a first position and a second position and including a locking arm configured to inhibit rotation of an actuator in the second position; a button configured to translate between a third position and a fourth position, the button operable to rotate the locking gear between the first position and the second position upon translation between the third position and the fourth position; a biasing gear coupled to the locking gear and configured to bias the locking gear toward the second position; and a biasing spring coupled to the biasing gear, and wherein the biasing gear is rotatable between a fifth position where the locking gear is in the first position and a sixth position where the locking gear is in the second position, the biasing spring configured to bias the biasing gear toward the sixth position. a locking gear rotatable between a first position and a second position and including a locking arm configured to inhibit rotation of an actuator in the second position; a button configured to translate between a third position and a fourth position, the button operable to rotate the locking gear between the first position and the second position upon translation between the third position and the fourth position; a biasing gear coupled to the locking gear and configured to bias the locking gear toward the second position; and a biasing spring coupled to the biasing gear, and wherein the biasing gear is rotatable between a fifth position where the locking gear is in the first position and a sixth position where the locking gear is in the second position, the biasing spring configured to bias the biasing gear toward the sixth position.
A method for calibrating a sensor for detecting the actual traveling speed of an implement mounted to a tractor, wherein the implement has an ECU and the sensor, wherein the ECU controls the functions of the implement, wherein the sensor is connected to the ECU of the implement and sends sensor signals to the ECU, which the ECU of the implement further processes into speed values, which are actually measured by the sensor, in software-controlled control and regulating processes, wherein the ECU of the implement has a software program for executing the method for calibrating the sensor, which, for calibrating the sensor, executes the process steps that - speed and/or distance signals, which are available via an interface and which reflect the traveling movement, are read out as reference values in response to a traveling movement of the tractor across a measuring distance in a calibrating mode from a source other than the sensor connected to the ECU, - speed and/or distance values corresponding to the read-out speed and/or distance signals are compared to the speed values corresponding to the sensor signals of the sensor, - in the case of a difference between the speed and/or distance values corresponding to the read-out speed and/or distance signals and the speed values corresponding to the sensor signals of the sensor, a correction factor is calculated, during the calculation of which with the sensor signals of the sensor the latter are adapted to the speed and/or distance values corresponding to the read-out speed and/or distance signals, - the correction factor determined in the calibrating mode is transmitted to the ECU of the implement, and the ECU are further processed the sensor signals received from the sensor only by offsetting them against this correction factor. - speed and/or distance signals, which are available via an interface and which reflect the traveling movement, are read out as reference values in response to a traveling movement of the tractor across a measuring distance in a calibrating mode from a source other than the sensor connected to the ECU, - speed and/or distance values corresponding to the read-out speed and/or distance signals are compared to the speed values corresponding to the sensor signals of the sensor, - in the case of a difference between the speed and/or distance values corresponding to the read-out speed and/or distance signals and the speed values corresponding to the sensor signals of the sensor, a correction factor is calculated, during the calculation of which with the sensor signals of the sensor the latter are adapted to the speed and/or distance values corresponding to the read-out speed and/or distance signals, - the correction factor determined in the calibrating mode is transmitted to the ECU of the implement, and the ECU are further processed the sensor signals received from the sensor only by offsetting them against this correction factor.
Elevator comprising at least one power unit of the elevator, which is a brake controller for the drive motor brakes of the elevator or which is an elevator motor drive, the power unit comprising a control circuit and a power circuit, whereby the power circuit comprises several discrete surface mounted power semiconductors (40a, 40b, 40c) which are located on a metal substrate printed circuit board (MSPCB), which MSPCB has a metal substrate layer covered by a dielectric layer on which a circuit layer with the power semiconductors (40a, 40b, 40c) is arranged, and the control circuit comprises a separate printed circuit board consisting of a circuit layer with control circuit components (16, 18) located on a polymer- or glass substrate, characterized in that the metal substrate layer of the MSPCB of the brake controller is in contact with a metal plane of an elevator component or in that the metal substrate layer of the MSPCB of the elevator motor drive is connected to a fixed metal structure of an elevator component in the elevator shaft.
A process for the production of compressed hydrogen gas from a feedstream comprising methane, comprising the steps of: (a) supplying the feedstream comprising methane and a steam stream to a solid oxide fuel cell wherein a reforming catalyst composition at the anode of the solid oxide fuel cell catalyses the generation of a product mixture comprising hydrogen; (b) generating electricity using the solid oxide fuel cell from at least a portion of the product mixture comprising hydrogen; (c) supplying at least a portion of the electricity generated by the solid oxide fuel cell to at least partially power an electrochemical device capable of extracting gaseous hydrogen and compressing it; (d) supplying at least a portion of the product mixture comprising hydrogen to the electrochemical device, for it to produce a compressed hydrogen stream; and (e) supplying, either continuously or intermittently, at least a portion of the compressed hydrogen stream to at least one hydrogen end-user and/or at least one storage unit, wherein at least another portion of the electricity generated by the solid oxide fuel cell is supplied to an electrolysis apparatus to at least partially power the electrolysis apparatus, wherein the electrolysis apparatus produces an output stream comprising hydrogen from an intake of water and at least a portion of electricity produced by the solid oxide fuel cell. (a) supplying the feedstream comprising methane and a steam stream to a solid oxide fuel cell wherein a reforming catalyst composition at the anode of the solid oxide fuel cell catalyses the generation of a product mixture comprising hydrogen; (b) generating electricity using the solid oxide fuel cell from at least a portion of the product mixture comprising hydrogen; (c) supplying at least a portion of the electricity generated by the solid oxide fuel cell to at least partially power an electrochemical device capable of extracting gaseous hydrogen and compressing it; (d) supplying at least a portion of the product mixture comprising hydrogen to the electrochemical device, for it to produce a compressed hydrogen stream; and (e) supplying, either continuously or intermittently, at least a portion of the compressed hydrogen stream to at least one hydrogen end-user and/or at least one storage unit, wherein at least another portion of the electricity generated by the solid oxide fuel cell is supplied to an electrolysis apparatus to at least partially power the electrolysis apparatus, wherein the electrolysis apparatus produces an output stream comprising hydrogen from an intake of water and at least a portion of electricity produced by the solid oxide fuel cell. wherein at least another portion of the electricity generated by the solid oxide fuel cell is supplied to an electrolysis apparatus to at least partially power the electrolysis apparatus, wherein the electrolysis apparatus produces an output stream comprising hydrogen from an intake of water and at least a portion of electricity produced by the solid oxide fuel cell.
A petroleum jelly including, in relation to the total weight of petroleum jelly: - 40 to 90% by weight of white GTL oil, - 5 to 50% by weight of microcrystalline wax, and - 0 to 50% by weight of paraffin. - 40 to 90% by weight of white GTL oil, - 5 to 50% by weight of microcrystalline wax, and - 0 to 50% by weight of paraffin.
A blind-mate capacitive coupling interconnection, comprising: a main module enclosure, comprising a main module outer surface; a sub-module enclosure, comprising a sub-module outer surface; a main module capacitive coupling surface provided on the main module outer surface of the main module enclosure; a sub-module capacitive coupling surface provided on the sub-module outer surface of the sub-module enclosure, wherein the main module capacitive coupling surface and the sub-module capacitive coupling surface are each provided with a ground portion with an aperture; a main module inner element provided within the aperture of the main module capacitive coupling surface and electrically isolated from the ground portion of the main module capacitive coupling surface; a sub-module inner element provided within the aperture of the sub-module capacitive coupling surface and electrically isolated from the ground portion of the sub-module capacitive coupling surface; and a mechanical fixture dimensioned to retain the sub-module capacitive coupling surface against the main module capacitive coupling surface. a main module enclosure, comprising a main module outer surface; a sub-module enclosure, comprising a sub-module outer surface; a main module capacitive coupling surface provided on the main module outer surface of the main module enclosure; a sub-module capacitive coupling surface provided on the sub-module outer surface of the sub-module enclosure, wherein the main module capacitive coupling surface and the sub-module capacitive coupling surface are each provided with a ground portion with an aperture; a main module inner element provided within the aperture of the main module capacitive coupling surface and electrically isolated from the ground portion of the main module capacitive coupling surface; a sub-module inner element provided within the aperture of the sub-module capacitive coupling surface and electrically isolated from the ground portion of the sub-module capacitive coupling surface; and a mechanical fixture dimensioned to retain the sub-module capacitive coupling surface against the main module capacitive coupling surface.
A method of power supply management of one or a plurality of first elements (604, 606) by a second element of a same first device, comprising the steps of: sending, to a second device, a time extension request; evaluating, during the time extension, a power available from an electromagnetic field radiated by the second device; and adapting the power supply of the second element and of the first element(s) according to the available power. sending, to a second device, a time extension request; evaluating, during the time extension, a power available from an electromagnetic field radiated by the second device; and adapting the power supply of the second element and of the first element(s) according to the available power.
A method for determining whether a part satisfies a tolerance criterion comprising the steps of: making a multiplicity of measurements of the part, each measurement defining a measured point on the part; reducing the number of measured points to a number of boundary points that define a boundary within which all measured points are encompassed; and comparing the boundary to a tolerance limit of a nominal surface to determine whether the part conforms to the tolerance, wherein the reducing step comprises grouping the measured points into a plurality of sets of spatially contiguous measured point subsets and reducing the number of measured points in each measured point subset to a reduced subset, and wherein each reduced subset is represented by a three-dimensional shape that encompasses all points in the corresponding measured point subset. making a multiplicity of measurements of the part, each measurement defining a measured point on the part; reducing the number of measured points to a number of boundary points that define a boundary within which all measured points are encompassed; and comparing the boundary to a tolerance limit of a nominal surface to determine whether the part conforms to the tolerance, wherein the reducing step comprises grouping the measured points into a plurality of sets of spatially contiguous measured point subsets and reducing the number of measured points in each measured point subset to a reduced subset, and wherein each reduced subset is represented by a three-dimensional shape that encompasses all points in the corresponding measured point subset.
A method for producing a fluoropolymer, comprising polymerizing a fluoromonomer in an aqueous medium in the presence of a polymer which - has a number average molecular weight, determined according to the method defined in the present description, of ≥ 0.3 × 10 4, and - comprises ≥ 40 mol%, based on all polymerized units, of polymerized units derived from a monomer of formula: CX 2 =CY(-CZ 2 -O-Rf-A) wherein X each independently is H or F; Y is H, F, alkyl or fluoroalkyl; Z each independently is H, F, alkyl or fluoroalkyl; Rf is C 1-40 -fluoroalkylene or C 2-100 -fluoroalkylene having an ether bond; and A is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H, a metal atom, -NR 7 4 wherein R 7 is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally having a substituent, with the proviso that at least one of X, Y, and Z contains a fluorine atom. - has a number average molecular weight, determined according to the method defined in the present description, of ≥ 0.3 × 10 4, and - comprises ≥ 40 mol%, based on all polymerized units, of polymerized units derived from a monomer of formula: CX 2 =CY(-CZ 2 -O-Rf-A) wherein X each independently is H or F; Y is H, F, alkyl or fluoroalkyl; Z each independently is H, F, alkyl or fluoroalkyl; Rf is C 1-40 -fluoroalkylene or C 2-100 -fluoroalkylene having an ether bond; and A is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H, a metal atom, -NR 7 4 wherein R 7 is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally having a substituent, with the proviso that at least one of X, Y, and Z contains a fluorine atom. X each independently is H or F; Y is H, F, alkyl or fluoroalkyl; Z each independently is H, F, alkyl or fluoroalkyl; Rf is C 1-40 -fluoroalkylene or C 2-100 -fluoroalkylene having an ether bond; and A is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H, a metal atom, -NR 7 4 wherein R 7 is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally having a substituent,
An audio signal processing apparatus comprising: first generating means for generating a first frame signal by multiplying a frame of an input audio signal by a prescribed first window function, the frame of the input audio signal having been generated by dividing the input audio signal into frames of a prescribed frame length; transform means for transforming the first frame signal into a frequency spectrum; adjusting means for adjusting an amplitude component of the frequency spectrum; second generating means for applying inverse transform to the amplitude component after adjustment and to a phase component of the frequency spectrum to generate a second frame signal in a time domain; identifying means for identifying a segment in an overlapping section between the second frame signal and an immediately preceding frame signal of the second frame signal such that an absolute value of an amplitude of the second frame signal at at least one end of the segment becomes smaller than an absolute value of an amplitude of the second frame signal at a corresponding end of the overlapping section; and compounding means for adding and compounding, in the identified segment, the immediately preceding frame signal and the second frame signal. first generating means for generating a first frame signal by multiplying a frame of an input audio signal by a prescribed first window function, the frame of the input audio signal having been generated by dividing the input audio signal into frames of a prescribed frame length; transform means for transforming the first frame signal into a frequency spectrum; adjusting means for adjusting an amplitude component of the frequency spectrum; second generating means for applying inverse transform to the amplitude component after adjustment and to a phase component of the frequency spectrum to generate a second frame signal in a time domain; identifying means for identifying a segment in an overlapping section between the second frame signal and an immediately preceding frame signal of the second frame signal such that an absolute value of an amplitude of the second frame signal at at least one end of the segment becomes smaller than an absolute value of an amplitude of the second frame signal at a corresponding end of the overlapping section; and compounding means for adding and compounding, in the identified segment, the immediately preceding frame signal and the second frame signal.
A packaging apparatus for a packaging machine, the machine comprising a web transport conveyor transporting a web of flexible packaging material from upstream to downstream locations through a series of stations including a forming station for forming at least one pocket in a first web of packaging material and a loading station for placing a food product in the pocket, the food product having packaging material comprising a foldable flap extending generally outwardly away from the conveyor, wherein the packaging apparatus comprises a closing station located downstream of the loading station for closing the pocket with a second web of packaging material, characterized in that the second web of packaging material is oriented in the closing station so as to engage with the first web of packaging material and also fold the foldable flap downwardly with respect to the conveyor as the conveyor moves from upstream to downstream and the apparatus comprises at least one movable dog located upstream of the engagement between the first and second webs (6, 16) of packaging material, the movable dog folding the foldable flap downwardly with respect to the conveyor.
An exterior door handle arrangement for a motor vehicle with an exterior door handle that contains a communication subassembly and a sensor subassembly, wherein the communication subassembly is connected to a first and a second supply line (5, 6), wherein the sensor subassembly is connected to a third and a fourth supply line (9, 10), wherein the four supply lines (5, 6, 9, 10) end at a connector of the exterior door handle, which can be connected to a counterpart of the exterior door handle arrangement on the motor vehicle, wherein a first terminal, which can be coupled to the first supply line, and a second terminal of the counterpart on the motor vehicle, which can be coupled to the second supply line, are coupled to a circuit that respectively always connects one of the two terminals (20, 21) to a high potential and the other terminal to a low potential in order to operate the communication subassembly, and wherein a third terminal of the counterpart on the motor vehicle, which can be coupled to the third supply line, is coupled to a circuit that connects the third terminal to ground or to a supply voltage in order to operate the sensor subassembly, characterized in that the exterior door handle features a lighting subassembly that is coupled between a tap on the third supply line and a node, wherein the node is coupled to a tap on the first supply line via a first diode and to a tap on the second supply line via a second diode, and wherein both diodes (15, 16) are coupled to the node with the same electrode.
A clamping mechanism for clamping two parts together to prevent separation of the parts along an axis, the clamping mechanism comprising: a first part provided with a first magnetic component; a second part; and a third part coupled to the second part and comprising a substantially C- shaped clamp provided with a second magnetic component, the mechanism being configured to bring the first and second parts together along said axis to cause rotational alignment and relative radial movement of the first and second magnetic components relative to said axis, due to the magnetic force generated by the magnetic components, to effect axial clamping of the first part to the second part by means of a radial movement of the substantially C-shaped clamp relative to said axis, and wherein relative rotation of the first and third parts to rotationally misalign the first and second magnetic components reverses this radial movement of the substantially C-shaped clamp, and effects unclamping of the first and second parts. a first part provided with a first magnetic component; a second part; and a third part coupled to the second part and comprising a substantially C- shaped clamp provided with a second magnetic component,
Coating part intended to be attached to one or more bodywork parts, that part comprising a body of which a plurality of elastic fastening means is extended to be received in corresponding days on the bodywork part(s), that part being characterized in that it also includes at least one means of rigid fastening in the form of a bodywork part(s) hook comprising a foot extending from the body of the said dressing room and a locking finger defining with the said body a spacer, the foot of the hook including a means of elastic embossing intended to cooperate with the bodywork element, preferably a clip.
Transdermal therapeutic system for the transdermal administration of guanfacine comprising a guanfacine-containing layer structure, said guanfacine-containing layer structure comprising: A) a backing layer; and B) a guanfacine-containing layer; wherein the transdermal therapeutic system comprises at least one silicone acrylic hybrid polymer; and wherein the guanfacine-containing layer is a guanfacine-containing matrix layer comprising: i) guanfacine; and ii) the at least one silicone acrylic hybrid polymer. A) a backing layer; and B) a guanfacine-containing layer; wherein the transdermal therapeutic system comprises at least one silicone acrylic hybrid polymer; and wherein the guanfacine-containing layer is a guanfacine-containing matrix layer comprising: i) guanfacine; and ii) the at least one silicone acrylic hybrid polymer. i) guanfacine; and ii) the at least one silicone acrylic hybrid polymer.