mhurhangee/ep-ind-claims huggingface dataset:
A method of transfer of a satellite from an initial orbit to a mission orbit of said satellite around a celestial body, comprising: - in said initial orbit, a step of docking: • of a spacecraft comprising an electrical propulsion module and a fluidic propellant supply circuit for supplying propellant to said propulsion module, • to an external propellant supply unit, comprising a propellant tank containing a reserve of propellant and anchored to said satellite by cooperating anchoring means carried respectively by said external unit and by said satellite, said spacecraft and said external unit comprising cooperating docking means for reversible docking of one to the other, comprising means (38, 25) of fluidic connection of said propellant tank with said fluidic circuit such that said docking step realizes a fluidic connection between said fluidic circuit of the spacecraft and said propellant tank of the external unit, thus enabling the supply of propellant to said propulsion module from said external unit; - a step of transfer of said spacecraft so docked to an assemblage consisting of said external unit anchored to said satellite to said mission orbit, by means of the electrical propulsion module of said spacecraft supplied with propellant from the propellant tank of the external unit, - and a step of releasing said satellite into said mission orbit. - in said initial orbit, a step of docking: • of a spacecraft comprising an electrical propulsion module and a fluidic propellant supply circuit for supplying propellant to said propulsion module, • to an external propellant supply unit, comprising a propellant tank containing a reserve of propellant and anchored to said satellite by cooperating anchoring means carried respectively by said external unit and by said satellite, said spacecraft and said external unit comprising cooperating docking means for reversible docking of one to the other, comprising means (38, 25) of fluidic connection of said propellant tank with said fluidic circuit such that said docking step realizes a fluidic connection between said fluidic circuit of the spacecraft and said propellant tank of the external unit, thus enabling the supply of propellant to said propulsion module from said external unit; • of a spacecraft comprising an electrical propulsion module and a fluidic propellant supply circuit for supplying propellant to said propulsion module, • to an external propellant supply unit, comprising a propellant tank containing a reserve of propellant and anchored to said satellite by cooperating anchoring means carried respectively by said external unit and by said satellite, - a step of transfer of said spacecraft so docked to an assemblage consisting of said external unit anchored to said satellite to said mission orbit, by means of the electrical propulsion module of said spacecraft supplied with propellant from the propellant tank of the external unit, - and a step of releasing said satellite into said mission orbit.
A container system (10, 10') for mixing two or more substances comprising: (a) a main container for holding one or more first substances, said main container having a first upper opening; (b) a storage repository for holding one or more second substances, said storage repository positioned within and coupled to said main container, and including a lip defining a second upper opening, said lip having an outside diameter smaller than the diameter of the first upper opening; (c) a mixing blade (200, 200'), said mixing blade (200, 200') having an outside diameter smaller than the diameter of the first upper opening and an inside diameter smaller than the outside diameter of said lip, said mixing blade (200, 200') having a plurality of openings (210,210'); and (d) a releasable liner covering said second upper opening; (e) wherein said lip forms a seal with a lower surface of said releasable liner, characterized in that at least a portion of said mixing blade (200, 200') contacts an upper surface of said releasable liner. (a) a main container for holding one or more first substances, said main container having a first upper opening; (b) a storage repository for holding one or more second substances, said storage repository positioned within and coupled to said main container, and including a lip defining a second upper opening, said lip having an outside diameter smaller than the diameter of the first upper opening; (c) a mixing blade (200, 200'), said mixing blade (200, 200') having an outside diameter smaller than the diameter of the first upper opening and an inside diameter smaller than the outside diameter of said lip, said mixing blade (200, 200') having a plurality of openings (210,210'); and (d) a releasable liner covering said second upper opening; (e) wherein said lip forms a seal with a lower surface of said releasable liner, characterized in that at least a portion of said mixing blade (200, 200') contacts an upper surface of said releasable liner.
Internal combustion engine comprising a coolant pump designed to circulate said coolant in a cooling circuit of said engine, said pump being arranged in a coupling façade of the engine, being kinematically linked with a driveshaft of the engine, in particular a balancing shaft of this engine, the coupling facade comprising a recess in which said pump is arranged, characterized in that said recess comprises an opening arranged facing an engine flywheel of a coupling casing of said engine.
Bipolar cell for a rechargeable battery, having - a metal electrode as an anode and - a gas electrode for an active gaseous material as a cathode, wherein an electrically conductive element is arranged between the anode and the cathode, said electrically conductive element having, for the purpose of allowing a gas supply to the cathode, on the side facing towards the cathode at least one gas channel, wherein the anode is made of zinc and the gaseous material contains oxygen, characterised in that the conductive part has a plurality of gas channels connected to each other and having a curved or spiral progression, and the conductive part has a porous surface in the gas channels. - a metal electrode as an anode and - a gas electrode for an active gaseous material as a cathode, wherein an electrically conductive element is arranged between the anode and the cathode, said electrically conductive element having, for the purpose of allowing a gas supply to the cathode, on the side facing towards the cathode at least one gas channel, wherein the anode is made of zinc and the gaseous material contains oxygen, characterised in that the conductive part has a plurality of gas channels connected to each other and having a curved or spiral progression, and the conductive part has a porous surface in the gas channels.
A condenser (1, 1a, 70, 80, 100) of stacked plate design, having a first flow channel (25, 25a, 60, 87) for a refrigerant and having a second flow channel (26, 26a, 32, 42, 52, 85) for a coolant, wherein a plurality of plate elements is provided, which form channels adjacent to each other between the plate elements when stacked on top of each other, wherein a first number of the channels is associated with the first flow channel (25, 25a, 60, 87) and a second number of the channels is associated with the second flow channel (26, 26a, 32, 42, 52, 85), wherein the first flow channel (25, 25a, 60, 87) has a first region (3, 72, 81) for desuperheating and condensing the vaporous refrigerant and a second region (4, 71, 82) for subcooling the condensed refrigerant, with a receiver for storing a refrigerant, wherein a refrigerant transfer from the first region (3, 72, 81) to the second region (4, 71, 82) leads through the receiver, wherein the receiver is in fluid communication with the first region (3, 72, 81) by means of a first connection element, which forms a first fluid connection of the receiver, wherein the receiver is in fluid communication with the second region (4, 71, 82) by means of a second connection element, which forms a second fluid connection of the receiver, characterised in that the first connection element and/or the second connection element are/is formed by a tube (5, 101, 125, 140, 150) which passes through a number of plate elements by means of openings in the plate elements.
A method of transmission throttling for emission exposure management in wireless communication, the method comprising: monitoring, by emission exposure management logic (700, 800) of a processor-based wireless communication device, a time averaged power level of transmission of a plurality of transmission blocks in an emission exposure rolling average window; and implementing, by the emission exposure management logic of the processor-based wireless communication device, transmit throttling of the plurality of transmission blocks, the method further comprising: computing a transmit duty cycle for a transmit power control configuration level transmission if the monitored time averaged power level for transmission of the plurality of transmission blocks in the emission exposure rolling average window exceeds an emission exposure level limit, and implementing the computed transmit duty cycle via skipping one or more retransmissions of transmission blocks of a hybrid automatic repeat request, HARQ, process. monitoring, by emission exposure management logic (700, 800) of a processor-based wireless communication device, a time averaged power level of transmission of a plurality of transmission blocks in an emission exposure rolling average window; and implementing, by the emission exposure management logic of the processor-based wireless communication device, transmit throttling of the plurality of transmission blocks, the method further comprising: computing a transmit duty cycle for a transmit power control configuration level transmission if the monitored time averaged power level for transmission of the plurality of transmission blocks in the emission exposure rolling average window exceeds an emission exposure level limit, and implementing the computed transmit duty cycle via skipping one or more retransmissions of transmission blocks of a hybrid automatic repeat request, HARQ, process.
A method for reducing the flattening of a wheel brake disk for a rail vehicle which has occurred as a result of braking operations, wherein, after determining a deviation of a friction face of the wheel brake disk from a plane defined by a peripheral edge of the friction face, the friction face of the wheel brake disk is permanently deformed back into the plane defined by the peripheral edge of the friction face.
A process for producing allyl acetate, comprising reacting a feed comprising propylene, acetic acid, oxygen, and carbon dioxide in the presence of a supported palladium catalyst, comprising palladium, the amount of palladium being 0.1 to 5.0 weight percent (wt%), preferably 0.3 to 1.5 wt% of the supported catalyst, a Group 11 element, an alkali or alkaline earth metal compound as activator and a carrier; wherein the feed comprises from 2 to 6 mol% carbon dioxide.
A compound represented by formula, wherein in formula, R 1 is C 4-20 alkyl or alkenyl branching at a carbon of 2-position thereof; rings A 1, A 2, A 3, A 4 and A 5 are independently 1,4-phenylene, 1,3-dioxane-2,5-diyl, tetrahydropyran-2,5-diyl, tetrahydropyran-3,6-diyl, pyrimidine-2,5-diyl, pyridine-2,5-diyl or naphthalene-2,6-diyl, and in these rings arbitrary hydrogen is optionally replaced by fluorine or chlorine, Z 1, Z 2, Z 3 and Z 4 are independently a single bond, or C 1-4 alkylene in which arbitrary -CH 2 - is optionally replaced by -O-, -COO-, -OCO- or -CF 2 O-, arbitrary -CH 2 -CH 2 -is optionally replaced by -CH=CH-, -CF=CF- or -C≡C-, and arbitrary hydrogen is optionally replaced by halogen; Y 1 is fluorine, chlorine, -SF 5, -C≡N, -N=C=S, or C 1-3 alkyl in which arbitrary hydrogen is replaced by halogen, and in the alkyl arbitrary -CH 2 - is optionally replaced by -O-, and arbitrary -CH 2 -CH 2 - is optionally replaced by -CH=CH- or -C≡C-; m is 1, n is 1, and p is 0 or 1.
Wrapping foil, characterized in that said wrapping foil is assembled from: - a preferably transparent or translucent paper sheet with a paper weight from 15 to 30 grams per square meter that is provided with resin, wherein the dry weight of the applied resin is at least as much as the paper weight; - a printed paper sheet with a paper weight from 50 to 90 grams per square meter, and better still 60 to 80 grams per square meter, which is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight; - a carrier sheet with a paper weight less than or equal to the paper weight of the aforementioned printed paper sheet, wherein this carrier sheet is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight of the carrier sheet in question. - a preferably transparent or translucent paper sheet with a paper weight from 15 to 30 grams per square meter that is provided with resin, wherein the dry weight of the applied resin is at least as much as the paper weight; - a printed paper sheet with a paper weight from 50 to 90 grams per square meter, and better still 60 to 80 grams per square meter, which is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight; - a carrier sheet with a paper weight less than or equal to the paper weight of the aforementioned printed paper sheet, wherein this carrier sheet is resin-free or is provided with an amount of resin for which the dry weight is less than half the paper weight of the carrier sheet in question.
A method for conducting automatically a process failure mode and effect analysis, PFMEA, for a factory (5-i) adapted to produce a product in a production process using a meta model, MM, stored or loaded in a data storage, wherein the meta model, MM, comprises abstract factory model elements modeling an abstract factory including one or more service declarations modeling abstract services across different factories (5-i), wherein each service declaration comprises failure mode declarations for different failure modes, characterized by the following steps: the stored meta model, MM, comprises factory related model elements modeling an equipment of a specific factory (5-i) by addressing service declarations within equipment services, and wherein each equipment service comprises combinations of failure mode declarations of its associated service declaration and occurrence values, OCC.
Method for manufacturing a wood composite, comprising the steps of: - providing an amount or a stream of vegetable fibres; - providing an amount or a stream of reactive, thermosetting binder, the reactive, thermosetting binder including a reactive component and/or a reactive prepolymer; characterized, in that the method comprises the steps: - mixing the reactive, thermosetting binder and the vegetable fibres into a reactive composite mixture and feeding the reactive composite mixture to an extrusion device; - subjecting the reactive composite mixture in the extrusion device to extrusion process conditions; - filling the pores of the vegetable fibres with the reactive, thermosetting binder while simultaneously expelling the air from the pores; - reacting of the reactive, thermosetting binder around the vegetable fibres and within the pores of the vegetable fibres and forming a wood composite at the temperature of the extrusion process conditions; wherein the extrusion process conditions comprise a temperature in the range of 60 °C - 200 °C, and comprise a pressure in the range of 10 - 300 MPa, wherein the viscosity of the reactive, thermosetting binder is in the range from about 0.1 to 100 mPa·s at the extrusion process conditions, wherein the reactive, thermosetting binder is an alkyd resin, or a melamine formaldehyde, or a polyester resin, or an urea formaldehyde, or an acrylic resin, or an epoxy resin, or a polyurethane. - providing an amount or a stream of vegetable fibres; - providing an amount or a stream of reactive, thermosetting binder, the reactive, thermosetting binder including a reactive component and/or a reactive prepolymer; - mixing the reactive, thermosetting binder and the vegetable fibres into a reactive composite mixture and feeding the reactive composite mixture to an extrusion device; - subjecting the reactive composite mixture in the extrusion device to extrusion process conditions; - filling the pores of the vegetable fibres with the reactive, thermosetting binder while simultaneously expelling the air from the pores; - reacting of the reactive, thermosetting binder around the vegetable fibres and within the pores of the vegetable fibres and forming a wood composite at the temperature of the extrusion process conditions; wherein the viscosity of the reactive, thermosetting binder is in the range from about 0.1 to 100 mPa·s at the extrusion process conditions, wherein the reactive, thermosetting binder is an alkyd resin, or a melamine formaldehyde, or a polyester resin, or an urea formaldehyde, or an acrylic resin, or an epoxy resin, or a polyurethane.
A method of determining a cycle time for a haul truck, comprising: periodically receiving a GPS signal comprising data indicative of a position of the haul truck; dynamically compiling a data structure including each data indicative of the position of the haul truck in combination with a time associated with the data indicative of the position of the haul truck; comparing each data indicative of the position of the haul truck to known geofence positions; identifying within the data indicative of the position of the haul truck first GPS position information, indicative of a first material plant checkpoint in which the haul truck enters a first material plant geofence a first time; identifying within the data indicative of the position of the haul truck second GPS position information (3-1, 4-1), indicative of a first paver checkpoint in which the haul truck enters and/or exits a dynamic geofence, wherein the geofence moves in correspondence with movement of the paver; identifying within the data indicative of the position of the haul truck third GPS position information, indicative of a second material plant checkpoint in which the haul truck enters the first material plant geofence a second time; creating an association between the first material plant checkpoint and the second material plant checkpoint; and determining a cycle time based at least partly on a time associated with the first material plant checkpoint and a time associated with the second material plant checkpoint. periodically receiving a GPS signal comprising data indicative of a position of the haul truck; dynamically compiling a data structure including each data indicative of the position of the haul truck in combination with a time associated with the data indicative of the position of the haul truck; comparing each data indicative of the position of the haul truck to known geofence positions; identifying within the data indicative of the position of the haul truck first GPS position information, indicative of a first material plant checkpoint in which the haul truck enters a first material plant geofence a first time; identifying within the data indicative of the position of the haul truck second GPS position information (3-1, 4-1), indicative of a first paver checkpoint in which the haul truck enters and/or exits a dynamic geofence, wherein the geofence moves in correspondence with movement of the paver; identifying within the data indicative of the position of the haul truck third GPS position information, indicative of a second material plant checkpoint in which the haul truck enters the first material plant geofence a second time; creating an association between the first material plant checkpoint and the second material plant checkpoint; and determining a cycle time based at least partly on a time associated with the first material plant checkpoint and a time associated with the second material plant checkpoint.
A pelvic implant assembly comprising a support portion and an extension portion (183, 185), a self-fixating tip (10; 182, 186) connected to the extension portion (183, 185), the self-fixating tip (10; 182,186) comprising a base comprising a proximal base end and a distal base end that has a length measured from the proximal base end to the distal base end, the proximal base end being connected to the extension portion (183, 185), the base comprising an internal channel extending from the proximal base end at least partially along a length of the base toward the distal base end, characterized in a fixed lateral extension extending from the base, the lateral extension having a length connected along the length of the base, a width extending laterally from the base, and a thickness, so that the lateral extension does not deflect relative to the base during and after implantation into soft tissue. a base comprising a proximal base end and a distal base end that has a length measured from the proximal base end to the distal base end, the proximal base end being connected to the extension portion (183, 185), the base comprising an internal channel extending from the proximal base end at least partially along a length of the base toward the distal base end, characterized in a fixed lateral extension extending from the base, the lateral extension having a length connected along the length of the base, a width extending laterally from the base, and a thickness, so that the lateral extension does not deflect relative to the base during and after implantation into soft tissue.
A spin control mechanism that controls a direction of a magnetic moment, the spin control mechanism comprising: a spin portion having the magnetic moment; and a first channel portion provided in contact with the spin portion and configured from a ferromagnetic insulator, wherein the direction of the magnetic moment of the spin portion is controlled using a spin current generated by a temperature gradient provided to the first channel portion, and characterised in that a gradient of a thickness is formed in the first channel portion such that the thickness becomes thinner from any predetermined position of the first channel portion toward the contact position of the first channel portion and the spin portion. a spin portion having the magnetic moment; and a first channel portion provided in contact with the spin portion and configured from a ferromagnetic insulator, wherein the direction of the magnetic moment of the spin portion is controlled using a spin current generated by a temperature gradient provided to the first channel portion, and characterised in that a gradient of a thickness is formed in the first channel portion such that the thickness becomes thinner from any predetermined position of the first channel portion toward the contact position of the first channel portion and the spin portion.