mhurhangee/ep-ind-claims huggingface dataset:
A vibratory screening machine, comprising: an outer frame; an inner frame connected to the outer frame; a vibratory motor assembly attached to the inner fame such that the vibratory motor assembly vibrates the inner frame; a plurality of screen deck assemblies attached to the inner frame and configured in a stacked arrangement, each one of the plurality of screen deck assemblies configured to receive replaceable screen assemblies (409,419), the screen assemblies (409,419) secured to the screen deck assemblies by tensioning the screen assemblies (409,419) in a direction that a material to be screened flows across the screen assemblies (409,419); an undersized material discharge assembly configured to receive materials that pass through the screen assemblies (409,419); and an oversized material discharge assembly configured to receive materials that pass over a top surface of the screen assemblies (409,419), wherein the undersized material discharge assembly includes an undersized chute in communication with each one of the plurality of screen deck assemblies, and wherein the oversized material discharge assembly includes an oversized chute assembly in communication with each one of the plurality of screen deck assemblies. an outer frame; an inner frame connected to the outer frame; a vibratory motor assembly attached to the inner fame such that the vibratory motor assembly vibrates the inner frame; a plurality of screen deck assemblies attached to the inner frame and configured in a stacked arrangement, each one of the plurality of screen deck assemblies configured to receive replaceable screen assemblies (409,419), the screen assemblies (409,419) secured to the screen deck assemblies by tensioning the screen assemblies (409,419) in a direction that a material to be screened flows across the screen assemblies (409,419); an undersized material discharge assembly configured to receive materials that pass through the screen assemblies (409,419); and an oversized material discharge assembly configured to receive materials that pass over a top surface of the screen assemblies (409,419), wherein the undersized material discharge assembly includes an undersized chute in communication with each one of the plurality of screen deck assemblies, and wherein the oversized material discharge assembly includes an oversized chute assembly in communication with each one of the plurality of screen deck assemblies.
A baler including a plurality of pressing elements (120,202) for pressing a mass of bale material in a bale chamber to form a round bale, and a binding apparatus for binding the bale in the bale chamber with at least one strip of film material, wherein at least one blocking element is provided between an adjacent pair of pressing elements to block the passage of a lead-in end of the film material between the pair of pressing elements; wherein each blocking element has a width that is less than the width of the bale chamber and, if the baler includes a plurality of blocking elements, the blocking elements have a combined width that is less than the width of the bale chamber; characterised in that the binding apparatus includes a bundling means (140,142) for bundling the lead-in end of the film material to form a rope-like element having a width less than the full width of the film material, wherein the number of blocking elements depends on the number of strips of film material fed into the bale chamber, wherein each blocking element is positioned to block the passage of a lead-in end of the film material between the pair of pressing elements. wherein each blocking element has a width that is less than the width of the bale chamber and, if the baler includes a plurality of blocking elements, the blocking elements have a combined width that is less than the width of the bale chamber; characterised in that the binding apparatus includes a bundling means (140,142) for bundling the lead-in end of the film material to form a rope-like element having a width less than the full width of the film material, wherein the number of blocking elements depends on the number of strips of film material fed into the bale chamber, wherein each blocking element is positioned to block the passage of a lead-in end of the film material between the pair of pressing elements.
Process comprising the following successive steps: (a) impregnating a soft mold provided with at least one cavity with a sol-gel layer coated on a first substrate, under conditions of a relative solvent pressure adjusted such that the layer swells by vapor absorption between 10 and 60%vol., so as to fill the mold under the action of capillary forces, (b) removing the first substrate, (c) if needed, equilibrating the gel within the mold cavities, under a relative solvent pressure between 0 and 95%, in order to allow it to swell and thus entirely fill said at least one cavity, (d) applying the swollen gel onto a second substrate to be patterned, (e) thermally treating this assembly so as to rigidify the gel, (f) removing the mold, and (g) curing the gel into a ceramic, thus forming a patterned substrate. (a) impregnating a soft mold provided with at least one cavity with a sol-gel layer coated on a first substrate, under conditions of a relative solvent pressure adjusted such that the layer swells by vapor absorption between 10 and 60%vol., so as to fill the mold under the action of capillary forces, (b) removing the first substrate, (c) if needed, equilibrating the gel within the mold cavities, under a relative solvent pressure between 0 and 95%, in order to allow it to swell and thus entirely fill said at least one cavity, (d) applying the swollen gel onto a second substrate to be patterned, (e) thermally treating this assembly so as to rigidify the gel, (f) removing the mold, and (g) curing the gel into a ceramic, thus forming a patterned substrate.
Process for manufacturing alkyl 7-amino-5-methyl-[1,2,5]-oxadiazolo[3,4-b]pyridine-carboxylate 4 wherein R is C 1-3 -alkyl, comprising (a) reacting malononitrile with sodium nitrite in the presence of a suitable acid in a suitable solvent under slight overpressure; (b) reacting the reaction mixture obtained by step (a) with a suitable toluenesulfonic acid derivative to obtain compound 1; (c) optionally isolating compound 1; (d) reacting compound 1 in a suitable solvent with hydroxylamine to obtain compound 2; (e) optionally isolating compound 2; (f) cyclisation of compound 2 in the presence of a base under heating to about 70°C in a suitable solvent to obtain the oxadiazole 3; (g) removal of water from the reaction mixture by evaporation under reduced pressure; (h) removal of p-toluensulfonic acid salt(s) by filtration; (i) in situ -condensation of compound 3 in the reaction mixture obtained after step (h) with the appropriate beta-keto ester of formula, wherein R is C 1-3 -alkyl, in the presence of a Lewis acid in a suitable solvent; and (j) isolating compound 4. (a) reacting malononitrile with sodium nitrite in the presence of a suitable acid in a suitable solvent under slight overpressure; (b) reacting the reaction mixture obtained by step (a) with a suitable toluenesulfonic acid derivative to obtain compound 1; (c) optionally isolating compound 1; (d) reacting compound 1 in a suitable solvent with hydroxylamine to obtain compound 2; (e) optionally isolating compound 2; (f) cyclisation of compound 2 in the presence of a base under heating to about 70°C in a suitable solvent to obtain the oxadiazole 3; (g) removal of water from the reaction mixture by evaporation under reduced pressure; (h) removal of p-toluensulfonic acid salt(s) by filtration; (i) in situ -condensation of compound 3 in the reaction mixture obtained after step (h) with the appropriate beta-keto ester of formula, wherein R is C 1-3 -alkyl, in the presence of a Lewis acid in a suitable solvent; and (j) isolating compound 4.
Hair growth composition based on an aqueous, alcoholic and/or aqueous alcoholic solution comprising A) 0.001 to 0.99 parts by weight menthol, based on 100 parts by weight of the finished composition, B) 0.1 to 3 parts by weight pressed juice of bamboo or bamboo extract, based on 100 parts by weight of the finished composition, C) 5 to 10 parts by weight legumes extract or pressed juice of legumes, based on 100 parts by weight of the finished composition, D) 2 to 10 parts by weight herb extracts or pressed juice of herbs, based on 100 parts by weight of the finished composition. A) 0.001 to 0.99 parts by weight menthol, based on 100 parts by weight of the finished composition, B) 0.1 to 3 parts by weight pressed juice of bamboo or bamboo extract, based on 100 parts by weight of the finished composition, C) 5 to 10 parts by weight legumes extract or pressed juice of legumes, based on 100 parts by weight of the finished composition, D) 2 to 10 parts by weight herb extracts or pressed juice of herbs, based on 100 parts by weight of the finished composition.
A railing for a drawer provided with a front, comprising - a railing strut, and - a panel fixing device at an end of the railing strut for fixing the railing to the front, wherein the panel fixing device is provided at least partially in the railing strut wherein the panel fixing device has a positioning device, by way of which the panel fixing device can be fastened at at least two different positions (5, 6) relative to the railing strut which is unchanged in its length, wherein the panel fixing device has a fixing element - preferably in the form of a dowel sleeve - for fixing the railing to the front of the drawer, characterised in that the fixing element of the panel fixing device - projects out beyond a longitudinal extent of the railing strut at one of the at least two different positions (5, 6), and - at the other of the at least two different positions (5, 6) it is sunk substantially completely in the railing strut. - a railing strut, and - a panel fixing device at an end of the railing strut for fixing the railing to the front, wherein the panel fixing device is provided at least partially in the railing strut wherein the panel fixing device has a positioning device, by way of which the panel fixing device can be fastened at at least two different positions (5, 6) relative to the railing strut which is unchanged in its length, wherein the panel fixing device has a fixing element - preferably in the form of a dowel sleeve - for fixing the railing to the front of the drawer, characterised in that the fixing element of the panel fixing device - projects out beyond a longitudinal extent of the railing strut at one of the at least two different positions (5, 6), and - at the other of the at least two different positions (5, 6) it is sunk substantially completely in the railing strut.
Method for the compensation of detent torques of synchronous motors of the same construction, which have a stator and a rotor in each case, wherein - for a reference motor of the synchronous motors, a no-load detent torque during no-load operation is acquired as a function of a rotor position of the rotor in relation to the stator and, for various operating points, a load detent torque is acquired as a function of the rotor position in each case, - for each acquired load detent torque of the reference motor, a differential detent torque is established by the acquired no-load detent torque of the reference motor being subtracted from the load detent torque, - an operating-point-dependent spectral component of the differential detent torque is determined, - a model function of the spectral component is established, by way of which the spectral component is modelled as a function of the operating point, and - for each synchronous motor, during operation in a predeterminable first operating range, at an instantaneous operating point a setpoint current of the synchronous motor is superimposed by a first compensation current, which generates a compensation torque which compensates for a detent torque with the value of the model function at the instantaneous operating point. - for a reference motor of the synchronous motors, a no-load detent torque during no-load operation is acquired as a function of a rotor position of the rotor in relation to the stator and, for various operating points, a load detent torque is acquired as a function of the rotor position in each case, - for each acquired load detent torque of the reference motor, a differential detent torque is established by the acquired no-load detent torque of the reference motor being subtracted from the load detent torque, - an operating-point-dependent spectral component of the differential detent torque is determined, - a model function of the spectral component is established, by way of which the spectral component is modelled as a function of the operating point, and - for each synchronous motor, during operation in a predeterminable first operating range, at an instantaneous operating point a setpoint current of the synchronous motor is superimposed by a first compensation current, which generates a compensation torque which compensates for a detent torque with the value of the model function at the instantaneous operating point.
A coated metal pigment comprising a metal pigment and a composite coating layer, wherein said composite coating layer comprises an adhesion layer which is disposed on the surface of said metal pigment either in contact with said metal pigment or at an interposition of another layer and contains polysiloxane and/or silica, and a resin layer which is disposed on the surface of said adhesion layer at an interposition of a coupling agent layer which comprises a silane coupling agent having a hydrophobic group or a silylation agent having a hydrophobic group, wherein said resin layer is a copolymer obtained by copolymerization of at least three kinds of monomers including a reactive monomer having a carboxyl group and/or a phosphoric acid group, a polyfunctional acrylic ester monomer with three or more functionalities, and a polymerizable monomer having a benzene nucleus.
Wheel trim comprising a base element provided with holes and a cover element placed on said base element, the cover element being linked with the base element by a speed activation element and said cover element being movable between a rest position, in which the holes are not covered by the cover element, and an active position, in which the holes are completely or partially covered by the cover element, when the rotating speed of the wheel is higher than a preset speed, the cover element being also linked with the base element by a temperature activation element, so that when the temperature sensed by said temperature activation element is higher than a preset temperature, the temperature activation element moves the cover element to said rest position, wherein the cover element is attached to the base element by a central bearing that permit the rotation of the cover element with respect to the base element, and wherein the base element comprises a plurality of retaining elements for attaching the trim to a wheel, characterized in that a first end of the temperature activation element and/or the speed activation element is fixed to the base element and a second end of the temperature activation element and/or the speed activation element is linked to the cover element by an arm, the second end of the arm being movable inside a groove provided in the base element.
A communications system with at least one first communications device, which is connected via a bidirectional transmission channel to at least one second communications device, wherein the communications devices (1a, 1b) each comprise a data reconstruction unit, wherein both communications devices (1a, 1b) each comprise a control unit for the configuration of various transmission parameters, such as, in particular, modulation type and/or code rate and/or transmitter power and/or size of data packets, dependent upon a reliability value evaluated in the control unit, and wherein the reliability value indicates a probability for a reliability or respectively a quality of a data reconstruction for the reconstruction of transmitted data from received signals within the data reconstruction unit, characterised in that a determination of the reliability value from an averaging of the number of iterative steps of an iterative estimation method for estimating the reliability value for individual bits is implemented in a channel decoder, and from this, a configuration of transmission parameters is implemented in the control unit of the first communications device, and either an adjustment of these transmission parameters is implemented in the transmission unit of the first communications device or a communication of these transmission parameters to the second communications device is implemented and an adjustment of these transmission parameters is implemented in the transmission unit of the second communications device.
A method of motion detection comprising: providing a reference surface having a plurality of fixed, targetable objects thereon and a movable device configured for acquiring images of said reference surface while said movable device is positioned above said reference surface and is made to move relative thereto; then acquiring a first plurality of images wherein each image in said first plurality contains a second plurality of objects; grouping said second plurality of objects into discernable clusters and arranging said clusters generally uniformly about the circumferential of a pseudo-circle determining lumped motion vectors for each said cluster by analyzing an intensity variation of light cast from said objects and captured within said images, wherein differences between successive images are analysed in order to determine said lumped motion vectors; determining a common linear motion vector of said clusters of objects; determining a non-linear motion vector of each of said clusters of objects; using data acquired from said linear motion vectors and from said non-linear motion vectors, determining a value or a status of a specific function used by a computer, electronic system or a system of equivalent functionality. providing a reference surface having a plurality of fixed, targetable objects thereon and a movable device configured for acquiring images of said reference surface while said movable device is positioned above said reference surface and is made to move relative thereto; then acquiring a first plurality of images wherein each image in said first plurality contains a second plurality of objects; grouping said second plurality of objects into discernable clusters and arranging said clusters generally uniformly about the circumferential of a pseudo-circle determining lumped motion vectors for each said cluster by analyzing an intensity variation of light cast from said objects and captured within said images, wherein differences between successive images are analysed in order to determine said lumped motion vectors; determining a common linear motion vector of said clusters of objects; determining a non-linear motion vector of each of said clusters of objects; using data acquired from said linear motion vectors and from said non-linear motion vectors, determining a value or a status of a specific function used by a computer, electronic system or a system of equivalent functionality.
Method for processing trace data generated by an optical time domain reflectometer, said trace data describing a response signal received by the reflectometer from an optical fibre, the method comprising - receiving the trace data; and - compensating (69, 79) distortions of the trace by applying a compensation model to the trace data, the compensation model being derived from transmission characteristics of a signal path within the reflectometer; characterized in that the method comprises - determining a model of the signal path and generating the compensation model by calculating the inverse of the model of the signal path, wherein determining the model of the signal path comprises fitting a generic model of the signal path to a measured transfer function of the signal path. - receiving the trace data; and - compensating (69, 79) distortions of the trace by applying a compensation model to the trace data, the compensation model being derived from transmission characteristics of a signal path within the reflectometer; - determining a model of the signal path and generating the compensation model by calculating the inverse of the model of the signal path, wherein determining the model of the signal path comprises fitting a generic model of the signal path to a measured transfer function of the signal path.
A pneumatic tire for motorcycles comprising bead cores embedded in each of a left-and-right pair of bead portion; at least one ply of carcass extending toroidally between said pair of bead portions; at least one ply of belt layer installed outside of the carcass in the direction of the radius of the tire; and a tread portion placed outside of the belt layer in the direction of the radius of the tire, the tread portion being divided in the width direction into tread parts with individual tread rubbers and being characterised in that, in said tread portion, the 50% region of the developed width of the tread whose center is on the tire equatorial plane is defined as "tread center portion", the 25% regions of the developed width of the tread region each of which is on the either side of the tread center portion are defined as "tread side portion", and each of the tread side portions (A, B, C) is divided into three equal parts which are defined from the tread end in order as region A, region B and region C, the average modulus of elasticity of the tread rubber in the region B at 100% elongation at a temperature of 40°C is larger than the average modulus of elasticity of the tread rubber in the region A and in the region C at 100% elongation at 40°C.
A method for quantifying the soil dispersion capacity of a cleaning product or component thereof where the method comprises the following steps: a) making a solution comprising the cleaning product or component thereof; b) adding the soil to the cleaning product or component thereof solution to form a mixture; and c) measuring the light blocked by the mixture, characterized in that the light blocked by the mixture is quantified by measuring obscuration using a particle size analyser. a) making a solution comprising the cleaning product or component thereof; b) adding the soil to the cleaning product or component thereof solution to form a mixture; and c) measuring the light blocked by the mixture, characterized in that the light blocked by the mixture is quantified by measuring obscuration using a particle size analyser.
A plasma ball generation device comprising a dielectric barrier discharge device, the dielectric barrier discharge device comprising: - a discharge cell made entirely of electric insulating materials, - two or more electrodes (14a, 14b) arranged in the discharge cell, - the discharge cell being filled with high pressure gas and wherein a electrical discharge is generated between the two electrodes (14a, 14b), - a control system connected to the two electrodes and configured to generate a sub-microsecond electrical discharge, characterized in that the plasma ball generation device further comprises an electric insulating guide connected to an outlet of the cell so that in the guide in operation can travel plasma balls. - a discharge cell made entirely of electric insulating materials, - two or more electrodes (14a, 14b) arranged in the discharge cell, - the discharge cell being filled with high pressure gas and wherein a electrical discharge is generated between the two electrodes (14a, 14b), - a control system connected to the two electrodes and configured to generate a sub-microsecond electrical discharge,