mhurhangee/ep-ind-claims huggingface dataset:
A tobacco industry product assembly machine comprising an apparatus for cutting and arranging rods for use in a tobacco industry product assembly machine, the apparatus comprising: a first cutting mechanism for cutting a four-length rod into first and second axially-aligned double-length rods (16,17), each double-length rod having respective remote ends, and a positioning mechanism for moving at least one of the first and second double-length rods such that said first and second double-length rods are moved from a first configuration in axial-alignment, to a second configuration in which the first and second double-length rods are out of axial alignment and the axes of the first and second double-length rods are parallel and spaced apart, and the remote ends of said first and second double-length rods are substantially aligned with each other, the tobacco industry product assembly machine further comprising a second cutting mechanism downstream of the first cutting mechanism for cutting said first and second double-length rods into single-length rods (22,23,24,25). a positioning mechanism for moving at least one of the first and second double-length rods such that said first and second double-length rods are moved from a first configuration in axial-alignment, to a second configuration in which the first and second double-length rods are out of axial alignment and the axes of the first and second double-length rods are parallel and spaced apart, and the remote ends of said first and second double-length rods are substantially aligned with each other, the tobacco industry product assembly machine further comprising a second cutting mechanism downstream of the first cutting mechanism for cutting said first and second double-length rods into single-length rods (22,23,24,25).
An alkoxymagnesium particle, comprising a reaction product of following components: 1) magnesium powder; 2) a mixed alcohol; 3) a halogenating agent; and 4) a titanate compound, and the titanate compound is distributed in the particle in an interior thereof and on a surface thereof.
An apparatus for bending a cap, the cap including a tamper-evident seal and a closure casing defining a perimeter edge, the tamper-evident seal being housed along the perimeter edge of the closure casing, the apparatus comprising: - a support unit, oriented along a longitudinal axis and including a seat configured to receive the closure casing; - a locking unit oriented along the longitudinal axis, wherein the support unit and the locking unit are movable reciprocally along the longitudinal axis between a spaced-apart position and a close-together position where the locking unit is partly inserted in the closure casing positioned in the seat of the support unit, characterized in that it further comprises a deforming element, positioned laterally of the longitudinal axis and movable towards and away from the longitudinal axis between an inactive position of non-interference with the closure casing, and an active position, where it presses the perimeter edge of the closure casing from the outside to deform it plastically towards the longitudinal axis so as to make a constraining seat that houses the tamper-evident seal, the deforming element being also movable by revolution about the longitudinal axis. - a support unit, oriented along a longitudinal axis and including a seat configured to receive the closure casing; - a locking unit oriented along the longitudinal axis,
A mobile working machine comprising: - an energy source (101, 201) for supplying electrical energy, - a storage circuit (103, 203) for storing electrical energy, - a first electronic power converter stage (104, 204) connected between the energy source and the storage circuit, - an electrical machine (106, 206) for driving one or more actuators (111, 211) of the mobile working machine, - a second electronic power converter stage (107, 207) connected between the storage circuit and the electrical machine, and - a control system (108, 208) for controlling the first electronic power converter stage to respond to fluctuation of power taken by the second electronic power converter stage from the storage circuit, the control system providing a control signal path from the storage circuit to the first electronic power converter stage, wherein at least one signal processing property of the control signal path is arranged to be dependent on the electrical energy stored by the storage circuit so that a control of the electrical energy is slower to respond to changes of the power taken by the second electronic power converter stage when the electrical energy has a first value that is between second and third values than when the electrical energy has either one of the second and third values, characterized in that the control signal path comprises a controllable filter and the control system is arranged to increase a bandwidth of the controllable filter in response to a situation in which the electrical energy gets farther from a reference value of the electrical energy. - an energy source (101, 201) for supplying electrical energy, - a storage circuit (103, 203) for storing electrical energy, - a first electronic power converter stage (104, 204) connected between the energy source and the storage circuit, - an electrical machine (106, 206) for driving one or more actuators (111, 211) of the mobile working machine, - a second electronic power converter stage (107, 207) connected between the storage circuit and the electrical machine, and - a control system (108, 208) for controlling the first electronic power converter stage to respond to fluctuation of power taken by the second electronic power converter stage from the storage circuit, the control system providing a control signal path from the storage circuit to the first electronic power converter stage,
A method for simultaneously separating cannabidivarin and cannabigerol, comprising: sufficiently oscillating a solvent system, allowing the solvent system to stand, and separately collecting an upper phase and a lower phase; dissolving a commercially available industrial hemp full-spectrum refined oil into the upper phase, performing separation using high-speed countercurrent chromatography with the upper phase as a stationary phase and the lower phase as a mobile phase to obtain a mixture of cannabidivarin and the mobile phase and a mixture of cannabigerol and the mobile phase, respectively, and removing the mobile phase to obtain cannabidivarin and cannabigerol; wherein the solvent system is obtained by mixing n-hexane or n-heptane, methyl tert-butyl ether, acetonitrile or ethanol, and water in a volume ratio of 5~10: 1∼3: 5∼10: 2∼4. sufficiently oscillating a solvent system, allowing the solvent system to stand, and separately collecting an upper phase and a lower phase; dissolving a commercially available industrial hemp full-spectrum refined oil into the upper phase, performing separation using high-speed countercurrent chromatography with the upper phase as a stationary phase and the lower phase as a mobile phase to obtain a mixture of cannabidivarin and the mobile phase and a mixture of cannabigerol and the mobile phase, respectively, and removing the mobile phase to obtain cannabidivarin and cannabigerol; wherein the solvent system is obtained by mixing n-hexane or n-heptane, methyl tert-butyl ether, acetonitrile or ethanol, and water in a volume ratio of 5~10: 1∼3: 5∼10: 2∼4.
A method of preparing a substrate for the labeling of articles comprising the steps of: applying a primer composition to the substrate, without lane priming; the primer composition comprising 60wt% to 95wt% aqueous polyurethane dispersion and 5.0wt% to 40wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers, preferably 65wt% to 85wt% aqueous polyurethane dispersion and 15wt% to 35wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers; wherein the α-olefin component of the copolymer of one or more α-olefins and one or more acid-based monomers is selected from ethylene; propylene; isobutylene; 1-butene; 1-pentene; 1-hexene; 4-methyl-1-pentene; 1-octene; and combinations thereof. applying a primer composition to the substrate, without lane priming; the primer composition comprising 60wt% to 95wt% aqueous polyurethane dispersion and 5.0wt% to 40wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers, preferably 65wt% to 85wt% aqueous polyurethane dispersion and 15wt% to 35wt% aqueous dispersion of a copolymer of one or more α-olefins and one or more acid-based monomers; wherein the α-olefin component of the copolymer of one or more α-olefins and one or more acid-based monomers is selected from ethylene; propylene; isobutylene; 1-butene; 1-pentene; 1-hexene; 4-methyl-1-pentene; 1-octene; and combinations thereof.
A door mirror of a vehicle, the door mirror including: a housing in which a mirror is accommodated; and a base portion adapted to attach the housing to a side surface of a vehicle body, wherein: the base portion includes: an attachment portion which is fixed to the side surface of the vehicle body; and a support portion which is provided to protrude from the attachment portion toward a vehicle-width-direction outer side, and which is adapted to support the housing from below; and the support portion is formed into a sectional shape of an inverse wing having a lower surface bulging downward in a vertically sectional shape in a front/rear direction of the vehicle, characterized in that the support portion is provided with a bead portion (51, 61) in the lower surface of the support portion, the bead portion (51, 61) protruding downward and extending in the front/rear direction of the vehicle so as to be gradually separated from the side surface of the vehicle body as it goes toward a rear of the vehicle. a housing in which a mirror is accommodated; and a base portion adapted to attach the housing to a side surface of a vehicle body, wherein: the base portion includes: an attachment portion which is fixed to the side surface of the vehicle body; and a support portion which is provided to protrude from the attachment portion toward a vehicle-width-direction outer side, and which is adapted to support the housing from below; and the support portion is formed into a sectional shape of an inverse wing having a lower surface bulging downward in a vertically sectional shape in a front/rear direction of the vehicle, characterized in that the support portion is provided with a bead portion (51, 61) in the lower surface of the support portion, the bead portion (51, 61) protruding downward and extending in the front/rear direction of the vehicle so as to be gradually separated from the side surface of the vehicle body as it goes toward a rear of the vehicle. the base portion includes: an attachment portion which is fixed to the side surface of the vehicle body; and a support portion which is provided to protrude from the attachment portion toward a vehicle-width-direction outer side, and which is adapted to support the housing from below; and the support portion is formed into a sectional shape of an inverse wing having a lower surface bulging downward in a vertically sectional shape in a front/rear direction of the vehicle, characterized in that the support portion is provided with a bead portion (51, 61) in the lower surface of the support portion, the bead portion (51, 61) protruding downward and extending in the front/rear direction of the vehicle so as to be gradually separated from the side surface of the vehicle body as it goes toward a rear of the vehicle.
A method for coding soundfield representations comprising: receiving a representation of a soundfield, the representation characterizing the soundfield around a point in space; decomposing the received representation into independent signals comprising a mono channel and a number of independent source channels; performing blind source separation on the received representation of the soundfield, wherein performing the blind source separation comprises using a directional-decomposition map obtained from a directional decomposition pre-processor, estimating an RMS power, performing a scale-invariant clustering, and applying a mixing matrix; and encoding the independent signals, wherein a quantization noise for any one of the independent signals has a common spatial profile with a corresponding one of the independent signals. receiving a representation of a soundfield, the representation characterizing the soundfield around a point in space; decomposing the received representation into independent signals comprising a mono channel and a number of independent source channels; performing blind source separation on the received representation of the soundfield, wherein performing the blind source separation comprises using a directional-decomposition map obtained from a directional decomposition pre-processor, estimating an RMS power, performing a scale-invariant clustering, and applying a mixing matrix; and encoding the independent signals, wherein a quantization noise for any one of the independent signals has a common spatial profile with a corresponding one of the independent signals.
An in vitro method for screening a patient for responsiveness to vagus nerve stimulation to treat an inflammatory disorder, the method comprising: challenging a sample of blood with a first concentration of toxin, wherein the sample is taken from the patient prior to stimulation of the patient's vagus nerve; challenging a second sample of blood with a second concentration of toxin that is at least 2 times the first concentration, wherein the second sample is taken from the patient prior to stimulation of the patient's vagus nerve; and outputting an indication that the patient is a responder or a non-responder for vagus nerve stimulation based on the amount of inflammatory cytokine released in response to the second concentration of toxin compared to the inflammatory cytokine released in response to the first concentration of toxin. challenging a sample of blood with a first concentration of toxin, wherein the sample is taken from the patient prior to stimulation of the patient's vagus nerve; challenging a second sample of blood with a second concentration of toxin that is at least 2 times the first concentration, wherein the second sample is taken from the patient prior to stimulation of the patient's vagus nerve; and outputting an indication that the patient is a responder or a non-responder for vagus nerve stimulation based on the amount of inflammatory cytokine released in response to the second concentration of toxin compared to the inflammatory cytokine released in response to the first concentration of toxin.
Method for producing a fitting component for personal fall protection equipment, comprising the steps: providing a support structure made of a first plastic material; winding a fiber in a plurality of windings on the support structure; and covering the fiber and the support structure with a second plastic material in such a way that the fitting component comprising the fiber and the support structure and corresponding to the core of the windings an opening in the fitting component is obtained. providing a support structure made of a first plastic material; winding a fiber in a plurality of windings on the support structure; and covering the fiber and the support structure with a second plastic material in such a way that the fitting component comprising the fiber and the support structure and corresponding to the core of the windings an opening in the fitting component is obtained.
A method for maintaining a DPF, comprising: measuring a pressure drop across the DPF; providing an estimate of soot mass loading in the DPF to a recursive filter, the estimate of soot mass loading comprising a first component determined as a function of the measured pressure drop across the DPF and assuming uniform soot mass distribution and a second, modeled non-uniform soot mass distribution component determined as a function of soot reaction rate and exhaust gas flow velocity in the DPF; using the recursive filter, updating the estimate of soot mass loading in view of the measured pressure drop to provide an updated estimate of soot mass loading in the DPF; characterized by the method further comprising at least periodically measuring the pressure drop across the DPF, and at least periodically updating the updated estimate of soot mass loading in view of respective ones of the at least periodic pressure drop measurements to generate a plurality of updated estimates of soot mass loading and calculating a standard deviation of the plurality of updated estimates of soot mass loading, comprising triggering regeneration when the updated estimate of soot mass loading plus the standard deviation, or a function of the estimated error, of the plurality of updated estimates of soot mass loading exceeds a predetermined value; and triggering active regeneration of the DPF when an earliest one of at least one triggering condition occurs, the updated estimate of soot mass loading reaching a predetermined value being one of the at least one triggering condition. measuring a pressure drop across the DPF; providing an estimate of soot mass loading in the DPF to a recursive filter, the estimate of soot mass loading comprising a first component determined as a function of the measured pressure drop across the DPF and assuming uniform soot mass distribution and a second, modeled non-uniform soot mass distribution component determined as a function of soot reaction rate and exhaust gas flow velocity in the DPF; using the recursive filter, updating the estimate of soot mass loading in view of the measured pressure drop to provide an updated estimate of soot mass loading in the DPF; characterized by the method further comprising at least periodically measuring the pressure drop across the DPF, and at least periodically updating the updated estimate of soot mass loading in view of respective ones of the at least periodic pressure drop measurements to generate a plurality of updated estimates of soot mass loading and calculating a standard deviation of the plurality of updated estimates of soot mass loading, comprising triggering regeneration when the updated estimate of soot mass loading plus the standard deviation, or a function of the estimated error, of the plurality of updated estimates of soot mass loading exceeds a predetermined value; and triggering active regeneration of the DPF when an earliest one of at least one triggering condition occurs, the updated estimate of soot mass loading reaching a predetermined value being one of the at least one triggering condition.
Method for extruding and labelling a packaging tube, comprising the following successive steps carried out on an extrusion-labelling line: a) forming a partially or totally tubular label from a film in a shaper; b) introducing the label into a calibration element; c) extruding a tubular body on the side of the concave face of the label; d) bringing the external face of the extruded tubular body into contact with the concave face of the label; in which method the label comprises at least one layer of which the melting point is at least 20°C higher than the melting point of the extruded tubular body, characterized in that the step d) is carried out by means of an air jet creating a first pressure difference (ΔP1) between the interior and the exterior of the tubular body, said first pressure difference (ΔP1) being generated by a first, floating plug situated downstream of the shaper that at least partially obstructs the escape of air via the interior of the tubular body, the first plug being maintained at a fixed position in the machine by external means and maintaining the pressure in the extruded tube. a) forming a partially or totally tubular label from a film in a shaper; b) introducing the label into a calibration element; c) extruding a tubular body on the side of the concave face of the label; d) bringing the external face of the extruded tubular body into contact with the concave face of the label; in which method the label comprises at least one layer of which the melting point is at least 20°C higher than the melting point of the extruded tubular body, characterized in that the step d) is carried out by means of an air jet creating a first pressure difference (ΔP1) between the interior and the exterior of the tubular body, said first pressure difference (ΔP1) being generated by a first, floating plug situated downstream of the shaper that at least partially obstructs the escape of air via the interior of the tubular body, the first plug being maintained at a fixed position in the machine by external means and maintaining the pressure in the extruded tube.
A vane arc segment comprising: an airfoil fairing having first and second fairing platforms (66, 68) and a hollow airfoil section extending there between; a spar having a spar platform adjacent the first fairing platform and a spar leg that extends from the spar platform and through the hollow airfoil section, the spar leg having an end portion that is distal from the spar platform and that protrudes from the second fairing platform; a support platform adjacent the second fairing platform, the support platform having a through-hole; and a pin; wherein the airfoil is subject to an aerodynamic load and the airfoil fairing transfers at least a portion of the aerodynamic load to the support platform characterized in that: the end portion has a clevis mount, the end portion of the spar leg extending through the through-hole such that the clevis mount protrudes from the support platform, wherein the pin extends though the clevis mount and locks the support platform to the spar leg such that the airfoil fairing is trapped between the spar platform and the support platform, and in that the vane arc segment further comprises a side of the through-hole defining a ledge, the spar leg including a stop that is complementary to the ledge, the support platform having a tendency to rotate about the pin under the aerodynamic load received from the airfoil fairing, the stop bearing against the ledge and limiting rotation of the support platform. an airfoil fairing having first and second fairing platforms (66, 68) and a hollow airfoil section extending there between; a spar having a spar platform adjacent the first fairing platform and a spar leg that extends from the spar platform and through the hollow airfoil section, the spar leg having an end portion that is distal from the spar platform and that protrudes from the second fairing platform; a support platform adjacent the second fairing platform, the support platform having a through-hole; and a pin; wherein the airfoil is subject to an aerodynamic load and the airfoil fairing transfers at least a portion of the aerodynamic load to the support platform characterized in that: the end portion has a clevis mount, the end portion of the spar leg extending through the through-hole such that the clevis mount protrudes from the support platform, wherein the pin extends though the clevis mount and locks the support platform to the spar leg such that the airfoil fairing is trapped between the spar platform and the support platform, and in that the vane arc segment further comprises a side of the through-hole defining a ledge, the spar leg including a stop that is complementary to the ledge, the support platform having a tendency to rotate about the pin under the aerodynamic load received from the airfoil fairing, the stop bearing against the ledge and limiting rotation of the support platform.