mhurhangee/ep-ind-claims huggingface dataset:
Method for recovering bitumen from road surfacing-asphalt breakup or for separating oil sand into oil and sand and stone, respectively, wherein the bitumen-containing road surfacing-asphalt breakup or the oil sand is introduced into a salt melt, wherein bitumen or oil, respectively, floats on the salt melt and after passage through the salt melt is skimmed off from the salt melt, and wherein the stone material and the sand, respectively, and/or the stone in the salt melt sinks and is carried away, characterized in that the temperature of the salt melt lies in the range from 200°C to 300°C and the average dwell time of the road surfacing-asphalt breakup in the salt melt lies in the region of at least 5 minutes, that the salt melt is a mixture of different salts, which has a melting point of less than 200°C, in the form of a ternary mixture on the basis of NaNO 3 /LiNO 3 /KNO 3 or in the form of a binary mixture on the basis of LiNO 3 /KNO 3.
A method for automatic control of a system for deburring parts comprising a robotic arm carrying a deburring tool, and a controller of the robotic arm capable of controlling a movement of the deburring tool during a deburring operation, said method comprising the following steps: - attaching at least one part to be deburred to a wedging device of said deburring system, said at least one part to be deburred comprising at least one profile extending along a longitudinal axis and one end of which has been previously cut by a cutting tool according to a cutting geometry and a cutting angle relative to the longitudinal axis of the profile; - scanning in situ said part to be deburred by means of a three-dimensional viewing device so as to generate a cloud of points from at least one representative digitization of said part to be deburred for a given position of the three-dimensional viewing device; - determining, from the cloud of points, a first three-dimensional model representative of the profile before cutting; - determining, from the cloud of points, a second three-dimensional model representative of the cutting geometry oriented according to the cutting angle; - determining a third three-dimensional model representative of at least one contour (11, 12) of the end of the profile to be deburred by calculating the geometric intersection between the first three-dimensional model and the second three-dimensional model; - selecting a subset of points in the third three-dimensional model representative of said at least one contour (11, 12); - controlling the movement of the deburring tool along a deburring trajectory determined from the subset of selected points. - attaching at least one part to be deburred to a wedging device of said deburring system, said at least one part to be deburred comprising at least one profile extending along a longitudinal axis and one end of which has been previously cut by a cutting tool according to a cutting geometry and a cutting angle relative to the longitudinal axis of the profile; - scanning in situ said part to be deburred by means of a three-dimensional viewing device so as to generate a cloud of points from at least one representative digitization of said part to be deburred for a given position of the three-dimensional viewing device; - determining, from the cloud of points, a first three-dimensional model representative of the profile before cutting; - determining, from the cloud of points, a second three-dimensional model representative of the cutting geometry oriented according to the cutting angle; - determining a third three-dimensional model representative of at least one contour (11, 12) of the end of the profile to be deburred by calculating the geometric intersection between the first three-dimensional model and the second three-dimensional model; - selecting a subset of points in the third three-dimensional model representative of said at least one contour (11, 12); - controlling the movement of the deburring tool along a deburring trajectory determined from the subset of selected points.
A closure for containers, comprising a first part and a second part made of plastic material, said closure having an inner surface and an outer surface, said second part being overmolded on the first part, said closure having a tubular band with a longitudinal axis (X-X), said tubular band being open at one end and closed at the opposite end by a flat wall transverse to the longitudinal axis of the tubular band, wherein said second part is formed with a volume V2 of plastic material that is smaller than the volume V1 of plastic material of said first part, and said closure comprising an amount Q of taggant elements embedded in the second part, characterized in that: - said first part and said second part are overmolded together such that each of the inner and outer surfaces, of the closure has a portion of the first part and a portion of the second part, - said amount Q of taggant elements embedded in the second part is selected to: - output a response signal higher than a preset authenticity threshold, when the closure is subjected to an electromagnetic exploration ray emitted by a checking device, - output a response signal lower than said preset authenticity threshold, when said amount Q of taggant elements is embedded in a volume of plastic material which is equal to at least the sum of said volumes V1 and V2 of the first part and the second part. - said first part and said second part are overmolded together such that each of the inner and outer surfaces, of the closure has a portion of the first part and a portion of the second part, - said amount Q of taggant elements embedded in the second part is selected to: - output a response signal higher than a preset authenticity threshold, when the closure is subjected to an electromagnetic exploration ray emitted by a checking device, - output a response signal lower than said preset authenticity threshold, when said amount Q of taggant elements is embedded in a volume of plastic material which is equal to at least the sum of said volumes V1 and V2 of the first part and the second part. - output a response signal higher than a preset authenticity threshold, when the closure is subjected to an electromagnetic exploration ray emitted by a checking device, - output a response signal lower than said preset authenticity threshold, when said amount Q of taggant elements is embedded in a volume of plastic material which is equal to at least the sum of said volumes V1 and V2 of the first part and the second part.
System for determining a condition of a road and/or at least one component (21, 22, 23, 24, 25) of a chassis system of a vehicle, comprising: a steering mechanism for a steering axle of the vehicle and at least one vibration sensor for sensing perturbations (I, II, III, IV, V) of the chassis system of the vehicle, wherein the vibration sensor is attached to at least one component (12, 14) of the steering mechanism, wherein at least one central control unit is provided for receiving and/or processing sensing data from the vibration sensor, characterized in that the control unit comprises a memory unit for saving individual vibration pattern (s) for different perturbations (I, II, III, IV, V) of the road and of different components (21, 22, 23, 24, 25) of the chassis system of the vehicle. a steering mechanism for a steering axle of the vehicle and at least one vibration sensor for sensing perturbations (I, II, III, IV, V) of the chassis system of the vehicle, wherein the vibration sensor is attached to at least one component (12, 14) of the steering mechanism, wherein at least one central control unit is provided for receiving and/or processing sensing data from the vibration sensor, characterized in that the control unit comprises a memory unit for saving individual vibration pattern (s) for different perturbations (I, II, III, IV, V) of the road and of different components (21, 22, 23, 24, 25) of the chassis system of the vehicle.
A process for producing a thermoplastic composite material reinforced with carbon nanotubes, said process including a step of: a) coextrusion of a thermoplastic polymer and of a mixture of a matrix of the thermoplastic polymer with a master mixture including carbon nanotubes, b) multiplication of the number of layers of the extrudate obtained in step a) by means of a layer multiplier block, the layer multiplier block preferably including between one and ten layer multiplier elements (22; 30) to form an extrudate of nanometric thickness and the concentration of carbon nanotubes of which is selected, characterized in that it further comprises the steps, prior to step a) of c) production of the mixture of the thermoplastic polymer with the master mixture including carbon nanotubes by compounding: - of a matrix of the polymer, - of the master mixture including carbon nanotubes, - of a compatibilization agent for the carbon nanotubes in the polymer, said step c) being realized with a ratio of the proportion by weight of carbon nanotubes with respect to the proportion by weight of the compatibilization agent comprised between 0.05 and 0.3, preferably equal to 0.2, d) extrusion of the mixture. a) coextrusion of a thermoplastic polymer and of a mixture of a matrix of the thermoplastic polymer with a master mixture including carbon nanotubes, b) multiplication of the number of layers of the extrudate obtained in step a) by means of a layer multiplier block, the layer multiplier block preferably including between one and ten layer multiplier elements (22; 30) to form an extrudate of nanometric thickness and the concentration of carbon nanotubes of which is selected, characterized in that it further comprises the steps, c) production of the mixture of the thermoplastic polymer with the master mixture including carbon nanotubes by compounding: - of a matrix of the polymer, - of the master mixture including carbon nanotubes, - of a compatibilization agent for the carbon nanotubes in the polymer, said step c) being realized with a ratio of the proportion by weight of carbon nanotubes with respect to the proportion by weight of the compatibilization agent comprised between 0.05 and 0.3, preferably equal to 0.2, - of a matrix of the polymer, - of the master mixture including carbon nanotubes, - of a compatibilization agent for the carbon nanotubes in the polymer, said step c) being realized with a ratio of the proportion by weight of carbon nanotubes with respect to the proportion by weight of the compatibilization agent comprised between 0.05 and 0.3, preferably equal to 0.2, d) extrusion of the mixture.
Heald, preferably for processing tape-type warp material, wherein the heald has the greatest extent thereof in a longitudinal direction and extends in a transverse direction and in a warp-thread direction, wherein the longitudinal direction, the transverse direction, and the warp-thread direction, in each case in pairs, are mutually perpendicular, the heald having the following features: - at least two strips (2, 3) which form the heald shaft; - at least one construction element which serves for delimiting the thread eyelet; - at least two end loops; - wherein the at least two strips (2, 3) in the region of the thread eyelet are spaced apart in the transverse direction; - and the at least one construction element in the region of the thread eyelet is disposed between the at least two strips (2, 3); - wherein the at least two strips (2, 3) in the longitudinal direction in front of and behind the thread eyelet bear on one another at least in portions, characterized in that - at least one of the at least two strips (2, 3) at least at one location in the region of at least one of the at least two end loops runs so as to be remote from a central axis of the heald to one side in the transverse direction, and at least one of the at least two strips (2, 3) at a further location in the region of at least one of the at least two end loops runs so as to be remote from the central axis of the heald to the other side in the transverse direction. - at least two strips (2, 3) which form the heald shaft; - at least one construction element which serves for delimiting the thread eyelet; - at least two end loops; - wherein the at least two strips (2, 3) in the region of the thread eyelet are spaced apart in the transverse direction; - and the at least one construction element in the region of the thread eyelet is disposed between the at least two strips (2, 3); - wherein the at least two strips (2, 3) in the longitudinal direction in front of and behind the thread eyelet bear on one another at least in portions, characterized in that - at least one of the at least two strips (2, 3) at least at one location in the region of at least one of the at least two end loops runs so as to be remote from a central axis of the heald to one side in the transverse direction, and at least one of the at least two strips (2, 3) at a further location in the region of at least one of the at least two end loops runs so as to be remote from the central axis of the heald to the other side in the transverse direction.
Method for operating a hearing aid, in which - an input signal is generated by means of a microphone, - the input signal is amplified in an amplifier with an adjustable gain factor, - the amplified input signal is output by way of a receiver, - an OVD parameter is established as a first parameter by means of an OVD unit, wherein the OVD parameter specifies whether or not the user themselves is speaking, - the gain factor is adjusted in a manner dependent on the OVD parameter taking into account noise, - the adjustment of the gain factor in a manner dependent on the OVD parameter itself is dependent on the presence and/or the properties of the noise, - the adjustment of the gain factor is modified in a manner dependent on the OVD parameter by virtue of the gain factor additionally being adjusted in a manner dependent on the noise, by virtue of that adjustment of the gain factor which is carried out in a manner dependent on the OVD parameter being modified in a manner dependent on the noise. - an input signal is generated by means of a microphone, - the input signal is amplified in an amplifier with an adjustable gain factor, - the amplified input signal is output by way of a receiver, - an OVD parameter is established as a first parameter by means of an OVD unit, wherein the OVD parameter specifies whether or not the user themselves is speaking, - the gain factor is adjusted in a manner dependent on the OVD parameter taking into account noise, - the adjustment of the gain factor in a manner dependent on the OVD parameter itself is dependent on the presence and/or the properties of the noise, - the adjustment of the gain factor is modified in a manner dependent on the OVD parameter by virtue of the gain factor additionally being adjusted in a manner dependent on the noise, by virtue of that adjustment of the gain factor which is carried out in a manner dependent on the OVD parameter being modified in a manner dependent on the noise.
Method for preserving the fresh juice of citrus fruits and pomegranates, where following the cooling and subsequent disinfection of the fruit whose juice is intended to be obtained, through the squeezing or extrusion of the fruit, is characterised because prior to pouring the juice into the container in which it will be finally sold, this container is subject to a gasification process, introducing CO 2 in the form of carbonic snow until the oxygen in the container has been removed, and immediately afterwards adding the natural juice pumped from the preservation container, added to the container a drop of liquid nitrogen and immediately hermetically sealing the container for its preservation in a cold chamber at a temperature ranging between 1° and 4°C.
A reinforcer (1; 100), comprising: - a shrinkable layer able to shrink in a direction of shrinkage, under the effect of a heat-shrink heat treatment, from an initial state to a shrunk state, - a first corrugatable layer, which comprises a grid work of yarns added against the shrinkable layer, the grid work of yarns of the first corrugatable layer being connected to the shrinkable layer by connection lines spaced apart and extending transversely with respect to the direction of shrinkage, the first corrugatable layer exhibiting a shrinkage that is substantially zero or that is smaller than that of the shrinkable layer along the direction of shrinkage under the effect of the heat-shrink heat treatment, so that: ∘ when the shrinkable layer is in the initial state, portions of the first corrugatable layer, each defined between two consecutive connection lines, are folded down against the shrinkable layer, and ∘ when the shrinkable layer is in the shrunk state, the portions of the first corrugatable layer are curved. - a shrinkable layer able to shrink in a direction of shrinkage, under the effect of a heat-shrink heat treatment, from an initial state to a shrunk state, - a first corrugatable layer, which comprises a grid work of yarns added against the shrinkable layer, the grid work of yarns of the first corrugatable layer being connected to the shrinkable layer by connection lines spaced apart and extending transversely with respect to the direction of shrinkage, the first corrugatable layer exhibiting a shrinkage that is substantially zero or that is smaller than that of the shrinkable layer along the direction of shrinkage under the effect of the heat-shrink heat treatment, so that: ∘ when the shrinkable layer is in the initial state, portions of the first corrugatable layer, each defined between two consecutive connection lines, are folded down against the shrinkable layer, and ∘ when the shrinkable layer is in the shrunk state, the portions of the first corrugatable layer are curved. ∘ when the shrinkable layer is in the initial state, portions of the first corrugatable layer, each defined between two consecutive connection lines, are folded down against the shrinkable layer, and ∘ when the shrinkable layer is in the shrunk state, the portions of the first corrugatable layer are curved.
A system allowing for purification and recycling of water or separation of water, said system comprising a filter system comprising a first filter being a removable mesh filter and a second filter being a disposable filter unit, said disposable filter unit comprising an outer body, a top, a bottom, an inflow, an outflow and a filter means enclosed in the outer body, said disposable filter unit being characterized by that the inflow is positioned adjacent to the bottom and the outflow is positioned adjacent to the top, and that the inflow and outflow are arranged to be fixated into the system and released from the system enabling a simple replacing of the disposable filter unit for a user, wherein the disposable filter unit is arranged in the system in a vertical direction with the top in a highest position of the disposable filter unit in the system and wherein the system comprises a mechanical filter fixating / releasing unit, and wherein the system comprises a water treatment UV unit including a UV lamp and a UV sensor.
Component (10; 10a; 10b) for electrically contacting at least one functional element (20; 20a) on a textile or similar, having at least one electrical component (22, 48) and/or a main body receiving a functional element (20; 20a), and having connector elements (30, 31) for electrically contacting electrically conductive regions (2, 5, 6) of the textile or similar, wherein the connector elements (30, 31), when connecting the main body to the textile or similar, are designed to form an electrical connection to the electrically conductive regions (2, 5, 6) of the textile or similar by way of a force-fitting and/or form-fitting connection, and wherein the main body has passage openings (28, 29) for guiding the connector elements (30, 31), wherein the connector elements (30, 31) optionally protrude from the passage openings (28, 29) on a lower side of the main body, characterized in that the connector elements have at least one element (33; 36, 37) which is designed to generate an elastic preloading force in the direction of the electrically conductive regions (2, 5, 6) of the textile or similar.
A load cell, wherein the load cell comprises: four strain gauges, comprising a first strain gauge, a second strain gauge, a third strain gauge and a fourth strain gauge, the four strain gauges being mounted on a surface of a cell deformation part and located in a force measurement region of the cell deformation part, and the four strain gauges being connected to form a Wheatstone bridge and then form a strain bridge with a temperature sensing element; a digital-to-analog conversion chip circuit, containing a reference voltage end (Vref), a grounding end, a plurality of input channels and a digital output end (Dout), the digital-to-analog conversion circuit incenting the strain bridge via the reference voltage end (Vref) and the grounding end, and receiving feedback signals of the strain bridge respectively via the plurality of input channels, and the feedback signals being output via the digital output end (Dout); and a signal processor, receiving the feedback signals from the output end (Dout) of the digital-to-analog conversion circuit, characterized by the signal processor comprising a load stress calculation unit and a state information matrix calculation unit, the load stress calculation unit obtaining a load stress value through calculation according to the feedback signals, and the state information matrix calculation unit obtaining a state information matrix through calculation according to the feedback signals. four strain gauges, comprising a first strain gauge, a second strain gauge, a third strain gauge and a fourth strain gauge, the four strain gauges being mounted on a surface of a cell deformation part and located in a force measurement region of the cell deformation part, and the four strain gauges being connected to form a Wheatstone bridge and then form a strain bridge with a temperature sensing element; a digital-to-analog conversion chip circuit, containing a reference voltage end (Vref), a grounding end, a plurality of input channels and a digital output end (Dout), the digital-to-analog conversion circuit incenting the strain bridge via the reference voltage end (Vref) and the grounding end, and receiving feedback signals of the strain bridge respectively via the plurality of input channels, and the feedback signals being output via the digital output end (Dout); and a signal processor, receiving the feedback signals from the output end (Dout) of the digital-to-analog conversion circuit, characterized by the signal processor comprising a load stress calculation unit and a state information matrix calculation unit, the load stress calculation unit obtaining a load stress value through calculation according to the feedback signals, and the state information matrix calculation unit obtaining a state information matrix through calculation according to the feedback signals.