mhurhangee/ep-ind-claims huggingface dataset:
Method for the production of form parts from multi-component reactive plastic material, especially from polyurethane, wherein a plurality of moulds is moved by means of mould carriages at least temporarily along a closed, preferably oval, production line, characterized in that a plurality of supply carriages is arranged along the closed production line at a conveying element, which supply carriages are moved by means of the conveying elements, that temporarily instead of at least one mould carriage a cleaning carriage is arranged in the production line and that the cleaning carriage is detachably coupled with a supply carriage and is moved by the same, wherein the cleaning carriage is equipped with rolls and is moved with the same on a stationary ground and wherein the stationary ground is cleaned with the cleaning carriage.
Method for producing a superhydrophobic membrane or surface coating of a substrate from an aqueous phase comprising the following steps: a) Preparing an aqueous dispersion by dispersing particles of hydrophobic polymer(s) in an aqueous solution of protic polymer(s), wherein the protic polymer(s) and the hydrophobic polymer(s) are present in a weight ratio of protic polymer(s): hydrophobic polymer(s) in a range of 5: 95 to 22: 78, b) electrospinning the dispersion of step a) onto a carrier for producing the membrane or onto the surface for producing the surface coating thereby producing at least one fiber and a nonwoven fabric from the fiber, c) subjecting the nonwoven fabric to a sol-gel process, wherein a precursor/precursors of the sol-gel comprise(s) an alkoxysilane, and d) curing the nonwoven fabric obtained by step c) at a temperature in a range of 50°C to 150°C. a) Preparing an aqueous dispersion by dispersing particles of hydrophobic polymer(s) in an aqueous solution of protic polymer(s), wherein the protic polymer(s) and the hydrophobic polymer(s) are present in a weight ratio of protic polymer(s): hydrophobic polymer(s) in a range of 5: 95 to 22: 78, b) electrospinning the dispersion of step a) onto a carrier for producing the membrane or onto the surface for producing the surface coating thereby producing at least one fiber and a nonwoven fabric from the fiber, c) subjecting the nonwoven fabric to a sol-gel process, wherein a precursor/precursors of the sol-gel comprise(s) an alkoxysilane, and d) curing the nonwoven fabric obtained by step c) at a temperature in a range of 50°C to 150°C.
A computer implemented method for operating a sewer network system comprising a wastewater treatment plant, WWTP, a plurality of combined sewer overflow, CSO, units having one or more basins (16.1), a plurality of actuators (16.5) for influencing wastewater flow through said sewer network, wherein said method implements a wet weather control strategy comprising: monitoring wastewater level and inflow for at least a number of CSO units; for said monitored CSO units, estimating a respective contamination index representing the current pollutant load at each of said monitored CSO units based on: - the wastewater inflow; - drinking water consumption information in a target zone of a water supply network; - state information representative of a current state of parts of said sewer network corresponding to said target zone of water supply network, in particular linked to and/or geographically adjacent to the latter; and - sewage information relating to sewage generated by users connected to the sewer network system, in particular based on a sewage generation model; determining, at a network control unit, set-points for said actuators based on the contamination indexes associated with said CSO units. monitoring wastewater level and inflow for at least a number of CSO units; for said monitored CSO units, estimating a respective contamination index representing the current pollutant load at each of said monitored CSO units based on: - the wastewater inflow; - drinking water consumption information in a target zone of a water supply network; - state information representative of a current state of parts of said sewer network corresponding to said target zone of water supply network, in particular linked to and/or geographically adjacent to the latter; and - sewage information relating to sewage generated by users connected to the sewer network system, in particular based on a sewage generation model; - the wastewater inflow; - drinking water consumption information in a target zone of a water supply network; - state information representative of a current state of parts of said sewer network corresponding to said target zone of water supply network, in particular linked to and/or geographically adjacent to the latter; and - sewage information relating to sewage generated by users connected to the sewer network system, in particular based on a sewage generation model; determining, at a network control unit, set-points for said actuators based on the contamination indexes associated with said CSO units.
Naval platform of the type having an aviation zone comprising at least one take-off/landing zone for an aircraft and in particular for a drone remotely piloted from a corresponding pilot station overlooking the take-off/landing zone of the aviation zone of the platform and the area surrounding the platform, characterised in that the pilot station is equipped with a system for superposing, on the view of the area surrounding the platform, navigation information for the drone relative to the take-off/landing zone, in order to assist with the piloting of the drone from the pilot station.
A method for preparing a metal sheet comprising a substrate having two faces, at least one of which is coated with a metal coating comprising between 0.1 and 10% by weight of Mg and optionally between 0.1 and 20% by weight of Al, the remainder of the metal coating being Zn, the inevitable impurities and optionally one or several additional elements selected from Si, Sb, Pb, Ti, Ca, Mn, Sn, La, Ce, Cr, Ni or Bi, the weight content of each additional optional elements being lower than 0.3%, the method comprising at least steps of: - providing a steel substrate having two faces coated on at least one face by a metal coating deposited by hot dipping of the substrate then solidified, - degreasing the outer surfaces of the coating, - simultaneously or subsequently to degreasing, applying on the outer surfaces of the metal coating an aqueous solution with a pH from 7 to 13 comprising: - an agent complexing magnesium ions, for which the dissociation constant pKd of the complexing reaction with magnesium is greater than or equal to 2, and - less than 1 g/L of cobalt ions. - providing a steel substrate having two faces coated on at least one face by a metal coating deposited by hot dipping of the substrate then solidified, - degreasing the outer surfaces of the coating, - simultaneously or subsequently to degreasing, applying on the outer surfaces of the metal coating an aqueous solution with a pH from 7 to 13 comprising: - an agent complexing magnesium ions, for which the dissociation constant pKd of the complexing reaction with magnesium is greater than or equal to 2, and - less than 1 g/L of cobalt ions. - an agent complexing magnesium ions, for which the dissociation constant pKd of the complexing reaction with magnesium is greater than or equal to 2, and - less than 1 g/L of cobalt ions.
Laser pulse shaping method for microscopic observation or modification of an object, wherein - there is a temporal modulation of laser pulses by way of a first pulse modulation device and a two-dimensional spatial modulation of said laser pulses by way of a second pulse modulation device disposed downstream of the first pulse modulation device, and - the modulated laser pulses (P"1-P"n) are directed at the object, with - there being a temporal modulation of the temporal phase for the individual frequency components of the laser pulse and there being a spatially dependent modulation of the spatial phase of the individual spatial regions of the laser pulse, and - the laser pulse being spatially and temporally modulated in such a way that one part of a sample volume excited as an object has impressed thereon a laser pulse structure which leads to efficient deactivation of the excited molecules of the sample volume, and/or another part of the excited sample volume has impressed thereon a laser pulse structure with as little deactivation of the excited molecules as possible, and - the second pulse modulation device spatially phase modulating, in two dimensions, the laser pulse modulated by the first pulse modulation device, characterized in that each frequency of the laser pulse is assigned a phase, amplitude and polarization which are shaped simultaneously and independently by the first pulse modulation device. - there is a temporal modulation of laser pulses by way of a first pulse modulation device and a two-dimensional spatial modulation of said laser pulses by way of a second pulse modulation device disposed downstream of the first pulse modulation device, and - the modulated laser pulses (P"1-P"n) are directed at the object, - there being a temporal modulation of the temporal phase for the individual frequency components of the laser pulse and there being a spatially dependent modulation of the spatial phase of the individual spatial regions of the laser pulse, and - the laser pulse being spatially and temporally modulated in such a way that one part of a sample volume excited as an object has impressed thereon a laser pulse structure which leads to efficient deactivation of the excited molecules of the sample volume, and/or another part of the excited sample volume has impressed thereon a laser pulse structure with as little deactivation of the excited molecules as possible, and - the second pulse modulation device spatially phase modulating, in two dimensions, the laser pulse modulated by the first pulse modulation device,
A method for preparing a membrane from fibril cellulose that is a collection of isolated cellulose microfibrils or microfibril bundles derived from cellulose raw material with an aspect ratio wherein the length exceeds one micrometer while the number-average diameter is below 200 nm, the method comprising - supplying fibril cellulose dispersion at a concentration of 0.1-10.0% (wt/wt) on a filter layer, which is a filter fabric, - draining liquid from the fibril cellulose dispersion by the effect of reduced pressure through the filter layer that is impermeable to fibrils of the fibril cellulose but permeable to the liquid to form a wet membrane sheet on the filter fabric, - applying heat on the opposite side of the wet membrane sheet to the wet membrane sheet while continuing draining of the liquid through the filter layer by pressure difference over the filter layer and keeping temperature of the membrane sheet under 100°C by the heat applied to the membrane sheet to obtain a desired dry matter content of the membrane sheet, and - removing the membrane sheet from the filter layer as a freestanding fibril cellulose membrane, or, alternatively - keeping the filter layer in the membrane as constituent layer of a membrane product comprising the filter layer and a fibril cellulose membrane. - supplying fibril cellulose dispersion at a concentration of 0.1-10.0% (wt/wt) on a filter layer, which is a filter fabric, - draining liquid from the fibril cellulose dispersion by the effect of reduced pressure through the filter layer that is impermeable to fibrils of the fibril cellulose but permeable to the liquid to form a wet membrane sheet on the filter fabric, - applying heat on the opposite side of the wet membrane sheet to the wet membrane sheet while continuing draining of the liquid through the filter layer by pressure difference over the filter layer and keeping temperature of the membrane sheet under 100°C by the heat applied to the membrane sheet to obtain a desired dry matter content of the membrane sheet, and - removing the membrane sheet from the filter layer as a freestanding fibril cellulose membrane, or, alternatively - keeping the filter layer in the membrane as constituent layer of a membrane product comprising the filter layer and a fibril cellulose membrane.
A camera actuator comprising: a housing; a mover disposed in the housing and including a boss, which protrudes toward the housing, on one surface thereof; and a driving unit that is disposed in the housing and rotates the mover in a first direction (X-axis direction) or a second direction (Y-axis direction) perpendicular to the first direction (X-axis direction), wherein the boss includes a first boss disposed on the one surface, a second boss spaced apart from the first boss, and a third boss having a larger separation distance from the first boss than from the second boss, the housing includes, in an inner surface corresponding to the one surface, a groove on which the first boss is seated, a first hole (1215h1) through which the second boss passes, and a second hole (1215h2) through which the third boss passes, a side surface of the second boss is spaced apart from the first hole (1215h1), and the housing includes a protrusion disposed on a side surface of the second hole and extending toward the third boss. a housing; a mover disposed in the housing and including a boss, which protrudes toward the housing, on one surface thereof; and a driving unit that is disposed in the housing and rotates the mover in a first direction (X-axis direction) or a second direction (Y-axis direction) perpendicular to the first direction (X-axis direction), wherein the boss includes a first boss disposed on the one surface, a second boss spaced apart from the first boss, and a third boss having a larger separation distance from the first boss than from the second boss, the housing includes, in an inner surface corresponding to the one surface, a groove on which the first boss is seated, a first hole (1215h1) through which the second boss passes, and a second hole (1215h2) through which the third boss passes, a side surface of the second boss is spaced apart from the first hole (1215h1), and the housing includes a protrusion disposed on a side surface of the second hole and extending toward the third boss.
A method of comprising the steps of: receiving, from a communication source, a request for a talkgroup call; identifying a payload multicast group address to be used for distributing payload to one or more participating devices for the call; distributing (408, 412) the payload multicast group address to the participating devices; issuing, by the participating devices, respective commands to one or more network devices to enable the participating devices to receive payload messages via the payload multicast group address, wherein the payload multicast group address is known by the participating devices at the time of issuing the respective commands; sending, from the communication source to the one or more network devices, at least one payload message addressed to the payload multicast group address; and sending (416, 418) the at least one payload message from the one or more network devices to the participating devices. receiving, from a communication source, a request for a talkgroup call; identifying a payload multicast group address to be used for distributing payload to one or more participating devices for the call; distributing (408, 412) the payload multicast group address to the participating devices; issuing, by the participating devices, respective commands to one or more network devices to enable the participating devices to receive payload messages via the payload multicast group address, wherein the payload multicast group address is known by the participating devices at the time of issuing the respective commands; sending, from the communication source to the one or more network devices, at least one payload message addressed to the payload multicast group address; and sending (416, 418) the at least one payload message from the one or more network devices to the participating devices.
An electric-vehicle controller configured to control power provided to a front electric motor (17, 17a) driving a front wheel of an electric vehicle (1, 2) and a rear electric motor (18, 18a) driving a rear wheel of the electric vehicle (1, 2), the front electric motor (17, 17a) being powered by a first battery and the rear electric motor (18, 18a) being powered by a second battery separate from the first battery, the electric-vehicle controller being configured to provide greater power from the first battery than from the second battery if the electric-vehicle controller determines that the charge state of the second battery is a predetermined amount lower than the charge state of the first battery and that the electric vehicle (1, 2) meets at least one predetermined driving characteristic such that the first battery charge state reduces more quickly than the second battery charge state to balance the charge states of the first battery and second battery, characterized in that the at least one predetermined driving characteristic includes that the electric vehicle (1, 2) is travelling in a straight line.
A medical garment comprising: an outer compression fabric; and at least one inner semicompressible element secured to the outer compression fabric and in use urged against a limb of a patient by the outer compression fabric; the at least one inner semicompressible element arranged to in use have multiple fingers projecting over the limb of the patient and regionally directing edema out of the limb; the at least one semicompressible element being made of at least one of foam, spacer fabric, polymer, and silicone, characterized in that the at least one semicompressible element comprises micro-channels creating tiny areas of relative higher and lower compression, the micro-channels being molded, etched or cut into the surface of the at least one semicompressible element. an outer compression fabric; and at least one inner semicompressible element secured to the outer compression fabric and in use urged against a limb of a patient by the outer compression fabric; the at least one inner semicompressible element arranged to in use have multiple fingers projecting over the limb of the patient and regionally directing edema out of the limb; the at least one semicompressible element being made of at least one of foam, spacer fabric, polymer, and silicone, characterized in that the at least one semicompressible element comprises micro-channels creating tiny areas of relative higher and lower compression, the micro-channels being molded, etched or cut into the surface of the at least one semicompressible element.
Procedure for the application-specific configuration of a field device which is installed in a defined application in an automation engineering process and which determines or monitors at least one process variable of a medium, wherein said procedure comprises the following procedural steps: - Recording of at least one diagnostic message, error message or item of information about an error message which occurs or has occurred at least temporarily at the field device at least during a defined time interval, - Analysis to determine which of the at least one diagnostic message, error message and/or item of information about the error message are tolerable in the defined application, - Assignment of application-specific information regarding tolerability to each diagnostic message, error message and/or item of information about an error message occurring in the defined application, - Suppression of the at least one diagnostic message, error message and/or item of information about an error message if this is classed as tolerable in the defined application, - Saving of the application-specific settings that suppress the at least one diagnostic message, error message and/or item of information about the error message classed as tolerable, by several field devices in the same application or a similarly defined application (A, A'), wherein the similarly defined application (A') matches the defined application within predefined tolerance limits concerning application-specific information, - Determination of an optimum setting for a field device in the same or a similar application (A, A') using the saved application-specific settings of the field devices or using statistical evaluation methods. - Recording of at least one diagnostic message, error message or item of information about an error message which occurs or has occurred at least temporarily at the field device at least during a defined time interval, - Analysis to determine which of the at least one diagnostic message, error message and/or item of information about the error message are tolerable in the defined application, - Assignment of application-specific information regarding tolerability to each diagnostic message, error message and/or item of information about an error message occurring in the defined application, - Suppression of the at least one diagnostic message, error message and/or item of information about an error message if this is classed as tolerable in the defined application, - Saving of the application-specific settings that suppress the at least one diagnostic message, error message and/or item of information about the error message classed as tolerable, by several field devices in the same application or a similarly defined application (A, A'), wherein the similarly defined application (A') matches the defined application within predefined tolerance limits concerning application-specific information, - Determination of an optimum setting for a field device in the same or a similar application (A, A') using the saved application-specific settings of the field devices or using statistical evaluation methods.
A method for delivering respiratory gas to passengers on-board an aircraft, comprising: detecting respirations of a passenger in a face mask associated to the passenger, and supplying the face mask with a dose of respiratory gas based on each passenger respiration detection, characterised in that the method further comprises supplying the face mask with anti-blocking gas (14, 16, P, CF), so that the occurrence of blockage, in particular due to moisture, preventing detection of respiration is reduced. detecting respirations of a passenger in a face mask associated to the passenger, and supplying the face mask with a dose of respiratory gas based on each passenger respiration detection, characterised in that the method further comprises supplying the face mask with anti-blocking gas (14, 16, P, CF), so that the occurrence of blockage, in particular due to moisture, preventing detection of respiration is reduced.
A multilayer tube of the tobacco industry, which has an internally hollow cylindrical shape extending round a longitudinal axis and whose cross section transverse to the longitudinal axis has a multilayer thickness defined by at least three superposed layers (2, 3, 4), characterized in that it is obtained by winding a flat multilayer material around the longitudinal axis until juxtaposing and coupling to each other opposite lateral edges (110, 120) of the flat multilayer material, wherein the flat multilayer material is obtained by folding a single sheet or web about at least two fold lines (P1, P2) parallel to the longitudinal axis to superpose corresponding longitudinal zones of the sheet or web and define the multilayer thickness.