mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a turbine engine part, the method comprising at least the following steps: • fabricating an ingot out of ceramic material of eutectic composition by performing the Czochralski process comprising the following steps: • putting a seed of the ingot that is to be obtained into contact with a molten bath of a mixture of eutectic composition in order to initiate the formation of the ingot on the seed, said mixture comprising at least two ceramic compounds; • drawing the ingot from the molten bath while imposing on the ingot that is being formed a drawing speed less than or equal to 10 mm/h together with rotation at a speed of rotation less than or equal to 50 rpm; and • machining the ingot as fabricated in this way in order to obtain the turbine engine part, wherein the ingot is drawn from the molten bath along a drawing axis, and wherein a temperature gradient less than or equal to 50°C/mm is maintained in the ingot along the drawing axis, at least in the vicinity of a surface of the molten bath. • fabricating an ingot out of ceramic material of eutectic composition by performing the Czochralski process comprising the following steps: • putting a seed of the ingot that is to be obtained into contact with a molten bath of a mixture of eutectic composition in order to initiate the formation of the ingot on the seed, said mixture comprising at least two ceramic compounds; • drawing the ingot from the molten bath while imposing on the ingot that is being formed a drawing speed less than or equal to 10 mm/h together with rotation at a speed of rotation less than or equal to 50 rpm; and • machining the ingot as fabricated in this way in order to obtain the turbine engine part, • putting a seed of the ingot that is to be obtained into contact with a molten bath of a mixture of eutectic composition in order to initiate the formation of the ingot on the seed, said mixture comprising at least two ceramic compounds; • drawing the ingot from the molten bath while imposing on the ingot that is being formed a drawing speed less than or equal to 10 mm/h together with rotation at a speed of rotation less than or equal to 50 rpm; and • machining the ingot as fabricated in this way in order to obtain the turbine engine part,
A biaxially stretched, blow molded container obtained by molding a laminated preform in a shape of a test tube, the preform being molded by an injection molding process using a multi-nozzle section, and the container being a bottle having a neck, a body, and a bottom, and comprising: an outer layer that forms an outer shell, and an inner layer that forms an inner bag to be laminated in a peelable manner with an inner surface of this outer layer, wherein the inner layer is formed to have so thin a wall that the inner bag can be deflated under a pressure drop inside the inner bag caused by a decrease in volume of a content fluid; the outer layer and the inner layer are of a laminar structure in which the lamination extends over an entire height range from a predetermined height position of the neck to a lower end face of a gate mark; characterized in that the gate mark remains to exist at a center of a bottom plate of the bottom; and that the outer layer and the inner layer are peeled from each other, starting from an interface of lamination (Bf) between the outer layer and the inner layer, and this interface (Bf) is exposed outside at the lower end face of the gate mark and can be used as an air intake vent that enables outside air to be taken into the space between the outer layer and the inner layer. an outer layer that forms an outer shell, and an inner layer that forms an inner bag to be laminated in a peelable manner with an inner surface of this outer layer, wherein the inner layer is formed to have so thin a wall that the inner bag can be deflated under a pressure drop inside the inner bag caused by a decrease in volume of a content fluid; the outer layer and the inner layer are of a laminar structure in which the lamination extends over an entire height range from a predetermined height position of the neck to a lower end face of a gate mark; characterized in that the gate mark remains to exist at a center of a bottom plate of the bottom; and that the outer layer and the inner layer are peeled from each other, starting from an interface of lamination (Bf) between the outer layer and the inner layer, and this interface (Bf) is exposed outside at the lower end face of the gate mark and can be used as an air intake vent that enables outside air to be taken into the space between the outer layer and the inner layer.
A cleaning system for a heat exchanger, adapted to generate supersonic shock waves from a gas and project the same against the surface of the exchanger, said system being characterised in that it comprises at least one cleaning device comprising a high pressure first chamber to be fluidly connected to a pressurised gas tank to supply said high pressure first chamber with gas, a low pressure second chamber comprising a port for exhausting the shock wave, and a trigger device reversibly actuatable between a closing position preventing fluid communication between said first and second chambers (2, 4), and an opening position placing said chambers (2, 4) in fluid communication, the opening speed of the trigger device being, when using this system, greater than or equal to 1.5 m 2 per second.
An automatic injector comprising: an interior chamber having an open end and containing a liquid component; a seal structure inserted into the interior chamber through the open end, the seal structure having a first state that seals the liquid component in the chamber and a second state that allows the liquid component to flow from the chamber through the seal structure; a needle assembly mounted to the open end of the interior chamber; a thin porous member located between the seal structure and the needle assembly; and a therapeutic agent disposed on and/or in the porous member, characterized in that the therapeutic agent is contained within pores or holes of the thin porous member or applied as a coating on at least a surface of the thin porous member. an interior chamber having an open end and containing a liquid component; a seal structure inserted into the interior chamber through the open end, the seal structure having a first state that seals the liquid component in the chamber and a second state that allows the liquid component to flow from the chamber through the seal structure; a needle assembly mounted to the open end of the interior chamber; a thin porous member located between the seal structure and the needle assembly; and a therapeutic agent disposed on and/or in the porous member, characterized in that the therapeutic agent is contained within pores or holes of the thin porous member or applied as a coating on at least a surface of the thin porous member.
Method for machining at least one component with a machining system for aligning and machining at least one component, which system comprises at least two machining units with a working range, whereby at least one tool is arranged in the working range and comprises at least one pick-up unit arranged on at least one vehicle to pick up the at least component, whereby the at least one component picked up by the pick-up unit is movable by the at least one vehicle in at least two directions, in which - the at least one component is picked up by at least one pick-up unit arranged on at least one vehicle, - the at least one component is arranged in a working range of at least one machining unit by the at least one vehicle, - for machining of the at least one component the at least one component is moved by the at least one vehicle in at least two directions relative to at least one stationary tool arranged in the working range and thereby is simultaneously machined by the tool, whereby movements of the at least one component carried out in an x-y plane are implemented by drive units of the vehicle and/or the pick-up unit arranged on the vehicle, and - the at least one component picked up by the pick-up unit is transported by the vehicle between at least two working ranges of at least two machining units. - the at least one component is picked up by at least one pick-up unit arranged on at least one vehicle, - the at least one component is arranged in a working range of at least one machining unit by the at least one vehicle, - for machining of the at least one component the at least one component is moved by the at least one vehicle in at least two directions relative to at least one stationary tool arranged in the working range and thereby is simultaneously machined by the tool, whereby movements of the at least one component carried out in an x-y plane are implemented by drive units of the vehicle and/or the pick-up unit arranged on the vehicle, and - the at least one component picked up by the pick-up unit is transported by the vehicle between at least two working ranges of at least two machining units.
A television comprising: a television screen; an alternative user interface; a network port for connecting the television to a network; and a processor arranged to execute a client program (402, 404, 406) configured to allow an end-user to communicate in a call via the network, and to receive notification of an incoming communication event signalled to the television via the network; characterised in that the client program (402, 404, 406) is configured to control the television screen to notify the user of the incoming communication event when the television screen is available, and to control the alternative user interface to indicate the incoming communication event when the television screen is unavailable due to displaying television broadcasts. a television screen; an alternative user interface; a network port for connecting the television to a network; and a processor arranged to execute a client program (402, 404, 406) configured to allow an end-user to communicate in a call via the network, and to receive notification of an incoming communication event signalled to the television via the network; characterised in that the client program (402, 404, 406) is configured to control the television screen to notify the user of the incoming communication event when the television screen is available, and to control the alternative user interface to indicate the incoming communication event when the television screen is unavailable due to displaying television broadcasts.
A method for the decomposition of asbestos, materials comprising asbestos, manmade mineral fibers (MMMF), including manmade vitreous fibers (MMVF), wherein said method comprises: a) fragmentation of mineral fibers, such as asbestos, ACM, MMMF, MMVF for obtaining fine particles; b) controlled cavitation; c) reaction with microwaves at a temperature between 100 and 250°C, P between 1 and 50 atm, in the presence of a metal catalyst; d) obtaining a processed product that is a safe raw material. a) fragmentation of mineral fibers, such as asbestos, ACM, MMMF, MMVF for obtaining fine particles; b) controlled cavitation; c) reaction with microwaves at a temperature between 100 and 250°C, P between 1 and 50 atm, in the presence of a metal catalyst; d) obtaining a processed product that is a safe raw material.
Method for controlling an energy absorber at a loading unit at least in an overload event to reduce loads acting on an object transported on a loading unit, wherein the energy absorber is suitable to absorb energy in a single overload event involving energy input that is so high that absent an energy absorber, damage to an object to be protected while being transported on the loading unit is highly probable, so as to reduce loads on the object resulting from the overload event by way of energy absorption by means of the energy absorber, wherein the energy absorber acts between a receiving unit for receiving objects for transporting and a carrier device for connection with a transporter, wherein an absorber force of the energy absorber can be influenced by an electrically controllable magnetic field unit wherein the following steps are provided in this or another expedient sequence: - measurement values of loads acting on the loading unit are captured sequentially by means of a sensor device; - an overload event is determined if a measure derived from the measurement values exceeds a predetermined threshold value; - after onset of an overload event a prognosticated load curve of the loading unit is assessed from a plurality of measurement values substantially captured from the onset of the overload event; - a planned power flow curve for the magnetic field unit is determined by means of which the prognosticated load curve is dampened time-dependent so that a planned load curve results which remains beneath a predetermined load limit; - the power flow through the magnetic field unit is controlled time-dependent according to the planned power flow curve. - measurement values of loads acting on the loading unit are captured sequentially by means of a sensor device; - an overload event is determined if a measure derived from the measurement values exceeds a predetermined threshold value; - after onset of an overload event a prognosticated load curve of the loading unit is assessed from a plurality of measurement values substantially captured from the onset of the overload event; - a planned power flow curve for the magnetic field unit is determined by means of which the prognosticated load curve is dampened time-dependent so that a planned load curve results which remains beneath a predetermined load limit; - the power flow through the magnetic field unit is controlled time-dependent according to the planned power flow curve.
A financial transaction card comprising: a card body adapted to substantially transmit radiation in a visible light wavelength region; said card body comprising a machine recognizable compound containing infrared blocking materials associated with said card body, said infrared blocking materials comprising a mixture of an IR-absorbing compound, a phosphor, and a quantum dot compound; said machine recognizable compound blocks transmission of incident infrared radiation. a card body adapted to substantially transmit radiation in a visible light wavelength region; said card body comprising a machine recognizable compound containing infrared blocking materials associated with said card body, said infrared blocking materials comprising a mixture of an IR-absorbing compound, a phosphor, and a quantum dot compound; said machine recognizable compound blocks transmission of incident infrared radiation.
Processing device for a central controller intended for providing data transmission schedules into multi-slot frames (k), based on a conflict graph representative of wireless links between nodes (Ni) that interfere when transmitting simultaneously on a same radio channel at given data rates, for nodes (Ni) linked therebetween and belonging to a multi-hop wireless network using a MAC protocol supporting a slotted access, characterized in that it comprises a processing means arranged, during each frame (k), for updating said conflict graph from interference information provided by said nodes (Ni) during said frame (k), and for refining said conflict graph from detection of hidden interferer nodes based on detected failures of data transmissions of the links between said nodes (Ni) during at least a previous frame (k-1).
A modular trailer hydraulic steering system for modular trailers which have module platforms at increasing or reducing numbers comprising a gooseneck steering mechanism with front steering cylinders located on the gooseneck compartment and a module platform steering mechanism with rear steering cylinders connected to said module platforms, the modular trailer hydraulic steering system incorporating the following components: • at least one variable displacement hydraulic distributor actuator located on the gooseneck, which is driven by transmission of hydraulic fluid by said front steering cylinders depending on the direction of movement of the tractor truck or hydraulically by an auxiliary pump and determining steering angles of said module platforms by transferring hydraulic fluid to said rear steering cylinders, • a cylindrical actuator housing and a drive shaft driven by front steering cylinders and located in said actuator housing which are forming said variable displacement hydraulic distributor actuator • chamber pistons inside said variable displacement hydraulic distributor actuator housing that move back and forth for circulation of hydraulic fluid between variable displacement hydraulic distributor actuator, front steering cylinders and rear module steering cylinders to enable the gooseneck compartment and modular platforms for turning at specified angles, • piston chambers housing said chamber pistons, designed at different hydraulic fluid transmission volumes but equal stroke, • hydraulic fluid inlet/outlet ports that are located on each piston chamber, making the connections that are necessary for circulating hydraulic fluid in and out of said piston chambers. • at least one variable displacement hydraulic distributor actuator located on the gooseneck, which is driven by transmission of hydraulic fluid by said front steering cylinders depending on the direction of movement of the tractor truck or hydraulically by an auxiliary pump and determining steering angles of said module platforms by transferring hydraulic fluid to said rear steering cylinders, • a cylindrical actuator housing and a drive shaft driven by front steering cylinders and located in said actuator housing which are forming said variable displacement hydraulic distributor actuator • chamber pistons inside said variable displacement hydraulic distributor actuator housing that move back and forth for circulation of hydraulic fluid between variable displacement hydraulic distributor actuator, front steering cylinders and rear module steering cylinders to enable the gooseneck compartment and modular platforms for turning at specified angles, • piston chambers housing said chamber pistons, designed at different hydraulic fluid transmission volumes but equal stroke, • hydraulic fluid inlet/outlet ports that are located on each piston chamber, making the connections that are necessary for circulating hydraulic fluid in and out of said piston chambers.
Shaped body, in particular for a pressure sensor, with a membrane and with a supporting section supporting the membrane, wherein the membrane is produced at least in sections from a ceramic material by means of additive manufacturing, characterized in that the greatest possible distance between two points lying on the outer circumference of the membrane is less than 10 mm and in that the supporting section has a total height of more than 2 mm.
A method for receiving a signal by a user equipment, UE, in a time division duplex, TDD, wireless communication system, the method comprising: receiving a first downlink signal in a first subframe comprising a downlink period, a guard period, and an uplink period; and demodulating the first downlink signal, the method being characterized in that: a cell-common reference signal is transmitted in the first subframe and a second subframe immediately before the first subframe, when the downlink period consists of symbols less than or equal to a specific number, the first downlink signal is demodulated using the cell-common reference signal received in the first subframe, and when the downlink period consists of symbols more than the specific number, the first downlink signal is demodulated using a UE-specific reference signal. receiving a first downlink signal in a first subframe comprising a downlink period, a guard period, and an uplink period; and demodulating the first downlink signal, the method being characterized in that: a cell-common reference signal is transmitted in the first subframe and a second subframe immediately before the first subframe, when the downlink period consists of symbols less than or equal to a specific number, the first downlink signal is demodulated using the cell-common reference signal received in the first subframe, and when the downlink period consists of symbols more than the specific number, the first downlink signal is demodulated using a UE-specific reference signal. a cell-common reference signal is transmitted in the first subframe and a second subframe immediately before the first subframe, when the downlink period consists of symbols less than or equal to a specific number, the first downlink signal is demodulated using the cell-common reference signal received in the first subframe, and when the downlink period consists of symbols more than the specific number, the first downlink signal is demodulated using a UE-specific reference signal.
Light device for a motor vehicle or a motor vehicle combination comprising at least one trailer, wherein said light device is arranged to be mounted on said motor vehicle, said light device comprising at least a first light emitting part arranged to emit a coloured side marking light, wherein said light device further comprises at least a second light emitting part arranged to emit a substantially white light so as to illuminate an area around said light device for improved visibility in said area, wherein said first light emitting part surrounds said second light emitting part and characterised in that said second light emitting part is adapted to be activated when brake lights of said motor vehicle or trailer are activated.
A ventilator apparatus comprising a ventilator with at least one actuator, further comprising; at least one computing system connected to said at least one actuator of the ventilator; at least one transducer (35, 36) configured to provide input signals from a patient to said computing system including at least one minute volume (Mv); wherein at least one processor of the computing system is configured to execute a program stored in a memory of the computing system, said program being configured to compute a respiration frequency (f) based on a previously defined lung model, depending on said minute volume (Mv), at least one stored functional dead space (Vd), at least one stored time constant (R ∗ C) and at least one stored duration ratio factor (D1, D2), said computed respiration frequency (f) being optimized on at least one minimum of a delivered parameter (G_tot), and said computed respiration frequency (f) is further optimized based on a percentage of spontaneous breaths of the patient (%Support) using said computing system; the program being further configured to estimate an inspiratory time (Ti) and an expiratory time (Te) based on said computed respiration frequency (f) and said at least one duration ratio factor (D1, D2), and to compute at least one tidal volume (Vt) based on said computed respiration frequency (f) and said determined minute volume (Mv); and a closed loop controller connected to said computing system, the closed loop controller configured to provide output data representing a delivered respiratory parameter of the ventilator, including at least one of a respiratory pressure (Rp), a respiratory volume (Rv) and a respiratory flow (Rf), based on said computed respiration frequency (f), said determined inspiratory time (Ti), said determined expiratory time (Te) and said computed tidal volume (Vt).