mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting faults in a motor by performing a diagnostic test using a drive signal that does not cause the motor to rotate, said system comprising: a drive circuit configured to apply the drive signal to the motor during the diagnostic test; a detection circuit configured to detect a response signal generated when the drive signal is applied to the motor; and a controller configured to determine a motor fault based on a comparison of the response signal to an expected signal for the drive signal applied to the motor, wherein the drive signal is selected to generate a rotating magnetic field in the motor with a rotation-frequency greater than a maximum mechanical-response-frequency of the motor; characterized in that the drive signal is only a single drive signal; and the controller is configured to determine a present inductance value of a phase of the motor based on the response signal during a test portion of the drive signal; and the present inductance value is determined based on a minimum value and a maximum value of current flowing in the phase of the motor during the test portion of the drive signal, wherein the controller is configured to compare the present inductance value to a baseline inductance value, and indicate a motor fault if the present inductance differs from the baseline inductance value by more than an inductance change threshold. a drive circuit configured to apply the drive signal to the motor during the diagnostic test; a detection circuit configured to detect a response signal generated when the drive signal is applied to the motor; and a controller configured to determine a motor fault based on a comparison of the response signal to an expected signal for the drive signal applied to the motor, wherein the drive signal is selected to generate a rotating magnetic field in the motor with a rotation-frequency greater than a maximum mechanical-response-frequency of the motor; characterized in that the drive signal is only a single drive signal; and the controller is configured to determine a present inductance value of a phase of the motor based on the response signal during a test portion of the drive signal; and the present inductance value is determined based on a minimum value and a maximum value of current flowing in the phase of the motor during the test portion of the drive signal, wherein the controller is configured to compare the present inductance value to a baseline inductance value, and indicate a motor fault if the present inductance differs from the baseline inductance value by more than an inductance change threshold.
Car with a set of containers, said set comprising containers made of materials able to transfer collision forces, when the car body is hit, where the containers are shaped in relation to each other and in relation to the surfaces limiting the car boot space in such a way that they fill this space completely, wherein the containers are suitcases, characterised in that the edges of side walls of upper and lower part of each suitcase being in contact with each other, when the suitcase is closed, are not parallel to the bottom of the suitcase, and as a result the hinges of the suitcase are not positioned at the same height as the closure of the suitcase.
A cooling module for cooling electronic data processing equipment arranged in a rack, said cooling module being adapted to be arranged as floor element of a raised floor, said cooling module comprising a fan for providing a flow of cooled air to a space above said cooling module, said cooling module being configured such that the flow direction of said flow is controllable towards an upper zone of a rack and towards a lower zone of a rack and said cooling module comprising a control device for automatically controlling the flow direction of said flow; characterized in that said cooling module comprises at least two deflector units (52,54) arranged side by side downstream of said fan for deviating the flow of cooled air provided by said fan, each deflector unit (52,54) being independently adjustable so as to enable division of said flow into at least two corresponding partial flows of independently adjustable flow direction, said deflector units (52,54) being connected to said control device for automatic adjustment of said deflector units (52,54).
A snap hook comprising: a body having an upper portion, a lower portion and a central portion, the central portion being positioned between the upper portion and the lower portion; a gate pivotally coupled proximate the central portion of the body, the gate and body selectively forming a closed configuration that defines a hook connection passage and an open configuration that provides access to the hook connection passage; a locking member to selectively hold the gate in relation to the body in the closed configuration; at least one trigger (160, 170) configured and arranged to release the locking member from holding the gate in relation to the body in the closed configuration; and a connection link having an upper end and a lower end, the upper end of the connection link pivotally coupled proximate the central portion of the body, the lower end of the connection link including a body connection aperture, the connection link being positioned to guard the at least one trigger (160, 170) from an accidental activation. a body having an upper portion, a lower portion and a central portion, the central portion being positioned between the upper portion and the lower portion; a gate pivotally coupled proximate the central portion of the body, the gate and body selectively forming a closed configuration that defines a hook connection passage and an open configuration that provides access to the hook connection passage; a locking member to selectively hold the gate in relation to the body in the closed configuration; at least one trigger (160, 170) configured and arranged to release the locking member from holding the gate in relation to the body in the closed configuration; and a connection link having an upper end and a lower end, the upper end of the connection link pivotally coupled proximate the central portion of the body, the lower end of the connection link including a body connection aperture, the connection link being positioned to guard the at least one trigger (160, 170) from an accidental activation.
A batch process for remediation of soils /sediments contaminated with toxic metals selected from the group consisting of Pb, Zn, Cd, Cu, Hg, Ni, Mo, Tl, Cr, U, Cs and Sr, in a series of batch processes, said batch process comprising: (a) washing or leaching a solid phase of contaminated soil /sediment with washing solution, said washing solution comprising EDTA or other chelating agent from the group of aminopolycarboxylic acids and their salts and mixtures of thereof; (b) separating the washing solution from the solid phase to obtain a washed solid phase and used washing solution; (c) rinsing of the washed solid phase with one or several rinsing solutions; (d.) subsequent separation of said rinsing solutions to obtain a rinsed solid phase and one or several used rinsing solutions; (e) alkalinisation of the used process solutions obtained in steps (b) and (d) to value between pH 11.5 and pH 13.5 using calcium containing base, thereby precipitating mixture comprising used Ca 2 and toxic metal hydroxides; (f) supplement of polysaccharide material to process solutions treated in step (e) for alkaline adsorption of toxic metals; (g) subsequent separation of the precipitated mixture of used Ca 2 and metal hydroxides and polysaccharide material with adsorbed toxic metals from the used washing and rinsing solutions; and (h) re-using of the rinsing solution recycled in step (g) for rinsing the solid phase in the subsequent batch process in said series of batch processes. (a) washing or leaching a solid phase of contaminated soil /sediment with washing solution, said washing solution comprising EDTA or other chelating agent from the group of aminopolycarboxylic acids and their salts and mixtures of thereof; (b) separating the washing solution from the solid phase to obtain a washed solid phase and used washing solution; (c) rinsing of the washed solid phase with one or several rinsing solutions; (d.) subsequent separation of said rinsing solutions to obtain a rinsed solid phase and one or several used rinsing solutions; (e) alkalinisation of the used process solutions obtained in steps (b) and (d) to value between pH 11.5 and pH 13.5 using calcium containing base, thereby precipitating mixture comprising used Ca 2 and toxic metal hydroxides; (f) supplement of polysaccharide material to process solutions treated in step (e) for alkaline adsorption of toxic metals; (g) subsequent separation of the precipitated mixture of used Ca 2 and metal hydroxides and polysaccharide material with adsorbed toxic metals from the used washing and rinsing solutions; and (h) re-using of the rinsing solution recycled in step (g) for rinsing the solid phase in the subsequent batch process in said series of batch processes.
A drafting system of a spinnery machine having roller pairs (2, 3, 4) between which at least one fiber strand can be guided and drafted, having a traversing device comprising a traversing element and at least one fiber guide, the at least one fiber guide being able to guide a fiber strand associated with the fiber guide, the traversing element being oscillated in a traversing motion relative to the roller pairs (2, 3, 4) in the axial direction thereof, and the at least one fiber guide being disposed on the traversing element so that the at least one fiber strand can be oscillated by means of the traversing motion of the fiber guide associated with the fiber strand, having a condensing device by means of which the fiber strand fully drafted by the roller pairs (2, 3, 4) can be condensed, and having at least one bearing (23, 24) in which at least the roller pairs (2, 3, 4), the traversing device, and/or the condensing device are supported, characterized in that the traversing device is disposed relative to the at least one bearing (23, 24) such that the at least one fiber guide contacts the at least one bearing (23, 24) by means of the traversing motion and can be displaced in the axial direction relative to the traversing element, so that the at least one fiber guide can be aligned in the axial direction relative to the condensing device. having a condensing device by means of which the fiber strand fully drafted by the roller pairs (2, 3, 4) can be condensed, and having at least one bearing (23, 24) in which at least the roller pairs (2, 3, 4), the traversing device, and/or the condensing device are supported, characterized in that the traversing device is disposed relative to the at least one bearing (23, 24) such that the at least one fiber guide contacts the at least one bearing (23, 24) by means of the traversing motion and can be displaced in the axial direction relative to the traversing element, so that the at least one fiber guide can be aligned in the axial direction relative to the condensing device.
Process for preparation of a mixture of methyl glycine diacetic acid (MGDA) or its respective mono-, di-, trialkali metal salt or its respective mono-, di- or tri-ammonium salt or mixtures thereof, and glutamic acid diacetic acid (GLDA) or its respective mono-, di-, tri-, or tetra-alkali metal or mono-, di-, tri- or tetra-ammonium salt or mixtures thereof, wherein said process comprises the steps of (a) dissolution in water of alanine in its L- or D-enantiomeric form or its respective monoalkali metal salt or mixtures thereof, and glutamic acid as L- or D-enantiomer or its respective mono-, or dialkali metal or or mixtures thereof, wherein the molar ratio of alanine to glutamic acid is in the range of from 1:9 to 9:1, (b) converting the mixture obtained in step (a) with formaldehyde and hydrocyanic acid or alkali metal cyanide to the corresponding dinitriles, (c) saponification of the dinitriles resulting from step (b). (a) dissolution in water of alanine in its L- or D-enantiomeric form or its respective monoalkali metal salt or mixtures thereof, and glutamic acid as L- or D-enantiomer or its respective mono-, or dialkali metal or or mixtures thereof, wherein the molar ratio of alanine to glutamic acid is in the range of from 1:9 to 9:1, (b) converting the mixture obtained in step (a) with formaldehyde and hydrocyanic acid or alkali metal cyanide to the corresponding dinitriles, (c) saponification of the dinitriles resulting from step (b).
A wet granulation process wherein drying of the granulate comprises two steps at an absolute inlet air humidity of less than 3 g water /kg of air, wherein the first step comprises drying the valsartan comprising granulate at a temperature of 0°C to 40°C for a period of 1 to 7 hours, and the second step comprises drying the valsartan comprising granulate at a temperature of 40°C to 80°C for a period of 1 to 60 minutes.
Method for the functional inspection of a functionality of a motor vehicle having a combustion engine, in which, when it is executed in the fault-free normal case, an additive for a selective catalytic reduction is introduced into an exhaust gas flow of the motor vehicle, following detection of a fault, in which - depending on the respective fault, an amount of the additive to be used for the functional inspection is determined based on a corresponding predefined assignment that assigns different amounts of the additive to be used to different faults, characterized in that - as a result of the predefined assignment, a first amount of the additive is assigned to faults that concern a dosing amount and/or a dosing accuracy of the additive and a second amount of the additive is assigned to faults that concern the lack of introduction of the additive, wherein the first amount is greater than the second amount, and - the functional check is performed by introducing the amount of the additive determined for the respective fault in order to determine whether the fault is still present. - depending on the respective fault, an amount of the additive to be used for the functional inspection is determined based on a corresponding predefined assignment that assigns different amounts of the additive to be used to different faults, characterized in that - as a result of the predefined assignment, a first amount of the additive is assigned to faults that concern a dosing amount and/or a dosing accuracy of the additive and a second amount of the additive is assigned to faults that concern the lack of introduction of the additive, wherein the first amount is greater than the second amount, and - the functional check is performed by introducing the amount of the additive determined for the respective fault in order to determine whether the fault is still present.
A molecular sieve having a MTT-type framework, a mole ratio of 20 to 70 of silicon oxide to aluminum oxide, a total micropore volume of between 0.005 and 0.02 cc/g; and a H-D exchangeable acid site density of up to 50% relative to SSZ-32, obtainable by a process comprising the steps of: (a) providing as-made, structure directing agent-containing molecular sieve SSZ-32x having a silicon-to-alumina ratio of 20 to 70; (b) subjecting the molecular sieve to a pre-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; (c) ion-exchanging the pre-calcined molecular sieve to remove extra-framework cations; and (d) subjecting the molecular sieve to a post-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; wherein the post-calcined molecular sieve has a cumulative weight loss of 0 < CWL ≤ 10 wt.% and a total micropore volume of between 0.005 and 0.02 cc/g. (a) providing as-made, structure directing agent-containing molecular sieve SSZ-32x having a silicon-to-alumina ratio of 20 to 70; (b) subjecting the molecular sieve to a pre-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; (c) ion-exchanging the pre-calcined molecular sieve to remove extra-framework cations; and (d) subjecting the molecular sieve to a post-calcination step at a temperature below the full decomposition temperature of the structure directing agent, for a time sufficient to convert at least a portion of the structure directing agent to a decomposition residue; wherein the post-calcined molecular sieve has a cumulative weight loss of 0 < CWL ≤ 10 wt.% and a total micropore volume of between 0.005 and 0.02 cc/g.
A surgical implant, comprising: a biocompatible member configured for securement to an underlying target surgical site; and more than one radiation source integrated into or onto the biocompatible member, wherein the surgical implant is a clip, wherein the surgical implant is coated with a colored oxide layer such that the surgical implant is substantially visible in the surgical field during an open procedure or radiographic location. a biocompatible member configured for securement to an underlying target surgical site; and more than one radiation source integrated into or onto the biocompatible member, wherein the surgical implant is a clip, wherein the surgical implant is coated with a colored oxide layer such that the surgical implant is substantially visible in the surgical field during an open procedure or radiographic location.
Method for recovering fibres and/or reinforcements from moulded parts made of plastic composite materials, in particular moulded parts of a large format, wherein - firstly regions of the moulded part with a high proportion of fibres and/or reinforcements and regions with a comparatively lower proportion of fibres and/or reinforcements are identified; after which - the moulded part is broken up by means of explosive charges in a way corresponding to the previously identified regions with a high proportion of fibres and/or reinforcements and regions with a comparatively lower proportion of fibres and/or reinforcements to form at least two fractions of fragments of the moulded part with a high proportion of fibres and/or reinforcements and with a comparatively lower proportion of fibres and/or reinforcements; and - the fibres and/or reinforcements at least from at least one fraction with a high proportion of fibres and/or reinforcements are recovered by selectively separating the polymer matrix from the fibres and/or reinforcements. - firstly regions of the moulded part with a high proportion of fibres and/or reinforcements and regions with a comparatively lower proportion of fibres and/or reinforcements are identified; after which - the moulded part is broken up by means of explosive charges in a way corresponding to the previously identified regions with a high proportion of fibres and/or reinforcements and regions with a comparatively lower proportion of fibres and/or reinforcements to form at least two fractions of fragments of the moulded part with a high proportion of fibres and/or reinforcements and with a comparatively lower proportion of fibres and/or reinforcements; and - the fibres and/or reinforcements at least from at least one fraction with a high proportion of fibres and/or reinforcements are recovered by selectively separating the polymer matrix from the fibres and/or reinforcements.
A roller hemming processing system in which a used hemming die can be changed in accordance with a type of a workpiece (Pa) when a hemming processing is performed on a peripheral portion of the workpiece by a roller-shaped hemming processing tool (5A, 5B, 5C) which is held by a robot arm while the workpiece that is a processed object is positioned and supported on the hemming die, the roller hemming processing system comprising: a clamping jig which is disposed on a hemming processing stage (S1, S2), and which is capable of removably positioning and fixing the hemming die; a die storage device (15A, 15B) in which a plurality of kinds of the hemming dies according to the type of the workpiece are received in a line in a longitudinal posture; a die changing robot (17, 19) which changes the hemming die between the clamping jig and the die storage device (15A, 15B) by swingably grasping the hemming die; and guide portions which are provided, respectively, to the clamping jig and the die storage device (15A, 15B), and which restrict a posture of the hemming die loaded to the clamping jig or the die storage device (15A, 15B), characterized by the hemming die in which a die body is mounted to a die plate for reinforcement, and in that a plurality of kinds of the hemming dies according to the type of the workpiece are received in the die storage (15A, 15B) in a line in a backward tilting posture. a clamping jig which is disposed on a hemming processing stage (S1, S2), and which is capable of removably positioning and fixing the hemming die; a die storage device (15A, 15B) in which a plurality of kinds of the hemming dies according to the type of the workpiece are received in a line in a longitudinal posture; a die changing robot (17, 19) which changes the hemming die between the clamping jig and the die storage device (15A, 15B) by swingably grasping the hemming die; and guide portions which are provided, respectively, to the clamping jig and the die storage device (15A, 15B), and which restrict a posture of the hemming die loaded to the clamping jig or the die storage device (15A, 15B),
Handling device for packaging products of the large-size panels type, the said device comprising a base structure which comprises, on the one hand, an upright structure having a substantially inclined bearing face and, on the other hand, a horizontal part secured to the upright structure and extending along and beside the upright structure, and at least two wedges mounted on the horizontal part, characterized in that the upper faces of the wedges define an inclined bearing plane orthogonal to the bearing face, the said device also comprising securing means for fixing, at least on the upright structure, the packaging resting on the inclined bearing plane and on the bearing face, the said device comprising support means interchangeable with the wedges for supporting at least one additional packaging of other products, the said support means being mounted on the horizontal part and having inclined upper faces provided with positioning members so as to define a bearing and positioning plane orthogonal to the bearing face and adapted to the additional packaging.