mhurhangee/ep-ind-claims huggingface dataset:
Method for pre-heating, transforming and melting a metal charge comprising metal scrap, in an electric arc furnace associated with a tunnel that transports, pre-heats and discharges said scrap, the furnace comprising a hearth and a roof through which the electrodes pass, characterized in that it provides: - that the furnace is weighed at least periodically in order to detect the quantity of discharged scrap present inside the furnace itself; - that the temperature of the liquid bath inside the furnace is detected at least periodically, and - that at least the discharge delivery of the scrap inside the furnace is detected by weighing and is regulated in order to maintain said temperature of the liquid bath around a pre-determined value. - that the furnace is weighed at least periodically in order to detect the quantity of discharged scrap present inside the furnace itself; - that the temperature of the liquid bath inside the furnace is detected at least periodically, and - that at least the discharge delivery of the scrap inside the furnace is detected by weighing and is regulated in order to maintain said temperature of the liquid bath around a pre-determined value.
A rotary wing aircraft with a fuselage that is equipped with at least one rail, comprising at least one sliding element, in particular a sliding door or a sliding window, that is slidably supported by the at least one rail, wherein the at least one sliding element is at least slidable along the at least one rail by means of an opening sliding movement into an opening movement direction from a fully closed position into a fully opened position, characterized in that a dampening unit is provided that dampens the opening sliding movement of the at least one sliding element upon reaching of the fully opened positions, the dampening unit comprising a dampening member with a visco-elastic behavior, the dampening member comprising a moveable piston; and at least one sliding arm assembly is mounted to the at least one sliding element for slidably connecting the at least one sliding element to the at least one rail, the at least one sliding arm assembly comprising a piston pusher that pushes the moveable piston upon reaching of the fully opened position of the at least one sliding element against a load that is applied to the moveable piston by means of the dampening member.
Set of a plurality of surgical ligature clips, each comprising two retaining arms (3, 4), which are connected to one another in each case at one end by a deformable connection point and bendable in such a way towards one another that the arms (3, 4) move from an open position, in which they are spaced further apart from one another, into a closed position, in which the mutually opposing inner sides of the arms (3, 4) are brought permanently closer to one another, the ligature clip consisting of an endless web member, which in the region of the two arms (3, 4) and the connection point forms two juxtaposed portions (6, 8; 7, 9) that merge into one another at the free ends of the arms (3, 4) remote from the connection point, characterized in that the set comprises a common carrier for the ligature clips, that passes through the ligature clips, which are disposed parallel and in a row adjacent to one another, in the region of the space between the juxtaposed portions (6, 8; 7, 9).
An implantable medical device comprising a biocompatible Baghdadite ceramic material, wherein the ceramic material comprises a transmission X-ray diffraction pattern having the following diffraction angles 2θ: • lines of strong intensity: 31.385; 31.075 and 29.940 degrees, and • lines of medium intensity: 27.662; 36.045 and 36.997 degrees. • lines of strong intensity: 31.385; 31.075 and 29.940 degrees, and • lines of medium intensity: 27.662; 36.045 and 36.997 degrees.
A laser light source, comprising: a semiconductor laser and a power source adapted for pulsed operation and comprising a front reflective element and a back reflective element, said front reflective element and said back reflective element defining an internal laser cavity, said internal laser cavity comprising a laser active medium; a partially transmitting wavelength selective light reflector (114;813) having a peak reflectivity within a gain bandwidth of said laser active medium, said wavelength selective light reflector and said back reflective element defining an external laser cavity (122;822), wherein a roundtrip time of light in said external laser cavity is about 20 nanoseconds or less; and wherein a full width half maximum bandwidth of said wavelength selective light reflector is adapted to accommodate at least 5 longitudinal modes of the internal laser cavity and at least 20 longitudinal modes of the external laser cavity, characterised in that the power source is configured to supply a pulsed electric current to said semiconductor laser with a pulse duration in a range from about 3 nanoseconds to about 1 microsecond; a semiconductor laser and a power source adapted for pulsed operation and comprising a front reflective element and a back reflective element, said front reflective element and said back reflective element defining an internal laser cavity, said internal laser cavity comprising a laser active medium; a partially transmitting wavelength selective light reflector (114;813) having a peak reflectivity within a gain bandwidth of said laser active medium, said wavelength selective light reflector and said back reflective element defining an external laser cavity (122;822), wherein a roundtrip time of light in said external laser cavity is about 20 nanoseconds or less; and wherein a full width half maximum bandwidth of said wavelength selective light reflector is adapted to accommodate at least 5 longitudinal modes of the internal laser cavity and at least 20 longitudinal modes of the external laser cavity, characterised in that the power source is configured to supply a pulsed electric current to said semiconductor laser with a pulse duration in a range from about 3 nanoseconds to about 1 microsecond;
An apparatus comprising means for: automatically processing first recorded sensor data from a scene that is recorded by one or more sensors, the sensor data relating to an action of a user in the scene, to enable programming of one or more of: one or more presentation criterion, a physical location in the scene recorded by the one or more sensors, a composition of a message, to define an association of the message with the physical location in the scene recorded by the one or more sensors and the one or more presentation criterion, wherein satisfaction of the one or more associated presentation criterion controls presentation, at the associated physical location in the scene, of the associated message, wherein the physical location is one of a plurality of different physical locations in the scene recorded by the one or more sensors; automatically processing second recorded sensor data from the scene to recognize automatically satisfaction of the one or more associated presentation criterion; and in response to recognition of satisfaction of the one or more associated presentation criterion, entering a presentation state to enable automatic presentation of the associated message into the scene at the associated physical location. automatically processing first recorded sensor data from a scene that is recorded by one or more sensors, the sensor data relating to an action of a user in the scene, to enable programming of one or more of: one or more presentation criterion, a physical location in the scene recorded by the one or more sensors, a composition of a message, to define an association of the message with the physical location in the scene recorded by the one or more sensors and the one or more presentation criterion, wherein satisfaction of the one or more associated presentation criterion controls presentation, at the associated physical location in the scene, of the associated message, wherein the physical location is one of a plurality of different physical locations in the scene recorded by the one or more sensors; automatically processing second recorded sensor data from the scene to recognize automatically satisfaction of the one or more associated presentation criterion; and in response to recognition of satisfaction of the one or more associated presentation criterion, entering a presentation state to enable automatic presentation of the associated message into the scene at the associated physical location.
A cetane number estimation method for estimating a cetane number of fuel combusted in a diesel engine in which a regular injection is performed by injecting fuel of an amount corresponding to an engine operation state and a preliminary injection is performed by injecting fuel of an amount predetermined for estimation of the cetane number of fuel, comprising: a first process in which the preliminary injection is performed multiple times at different compression end temperatures with a fuel tank containing fuel having a predetermined cetane number, and an increase in the rotation speed of an engine output shaft that has been caused by each preliminary injection is calculated and a relation between the compression end temperatures at the respective preliminary injections and the engine output shaft speed increases caused by the respective preliminary injections is determined, and the compression end temperature and the engine output shaft speed increase at a predetermined reference point on the relation are recorded in a data storage; a second process in which the preliminary injection is performed at the compression end temperature recorded in the data storage and an engine output shaft speed increase caused by the preliminary injection is calculated; and a third process in which a cetane number of fuel is estimated based on a relation between the engine output shaft speed increase recorded in the data storage and the engine output shaft speed increase calculated in the second process. a first process in which the preliminary injection is performed multiple times at different compression end temperatures with a fuel tank containing fuel having a predetermined cetane number, and an increase in the rotation speed of an engine output shaft that has been caused by each preliminary injection is calculated and a relation between the compression end temperatures at the respective preliminary injections and the engine output shaft speed increases caused by the respective preliminary injections is determined, and the compression end temperature and the engine output shaft speed increase at a predetermined reference point on the relation are recorded in a data storage; a second process in which the preliminary injection is performed at the compression end temperature recorded in the data storage and an engine output shaft speed increase caused by the preliminary injection is calculated; and a third process in which a cetane number of fuel is estimated based on a relation between the engine output shaft speed increase recorded in the data storage and the engine output shaft speed increase calculated in the second process.
An indoor unit comprising: a chassis installed on a ceiling; an air inlet section configured to allow indoor air to flow into the chassis; an air filter configured to collect dust in the air flowing from the air inlet section; a dust-removing unit configured to remove dust attached to the air filter; and a collecting unit configured to collect and to temporarily store the dust removed from the air filter by the dust-removing unit; wherein the collecting unit is configured to cover the dust-removing unit from below, configured to have an opening part where the dust-removing unit and the air filter come into contact, wherein the dust-removing unit is disposed at the opening part so as to prevent the dust stored in the collecting unit from falling outside, and characterised in that the collecting unit is configured to move relatively to the air filter by a driving unit configured to generate a driving force, so as to remove dust attached to the air filter by the dust-removing unit. a chassis installed on a ceiling; an air inlet section configured to allow indoor air to flow into the chassis; an air filter configured to collect dust in the air flowing from the air inlet section; a dust-removing unit configured to remove dust attached to the air filter; and a collecting unit configured to collect and to temporarily store the dust removed from the air filter by the dust-removing unit; wherein the collecting unit is configured to cover the dust-removing unit from below, configured to have an opening part where the dust-removing unit and the air filter come into contact, wherein the dust-removing unit is disposed at the opening part so as to prevent the dust stored in the collecting unit from falling outside, and characterised in that the collecting unit is configured to move relatively to the air filter by a driving unit configured to generate a driving force, so as to remove dust attached to the air filter by the dust-removing unit.
An additive manufacturing system (40, 50) comprising: an additive manufacturing device comprising a material deposition head; and a terahertz inspection device located proximate to the material deposition head; said terahertz inspection device comprising a terahertz probe (22, 32), said terahertz probe (22, 32) comprising a thermal shield (26, 36) substantially enveloping the terahertz probe (22, 32); and wherein the terahertz probe (22, 32) further comprises: a terahertz emitter/receiver in communication with a fiber optic cable, or a terahertz emitter in communication with a fiber optic cable and a terahertz receiver in communication with another fiber optic cable. an additive manufacturing device comprising a material deposition head; and a terahertz inspection device located proximate to the material deposition head; said terahertz inspection device comprising a terahertz probe (22, 32), said terahertz probe (22, 32) comprising a thermal shield (26, 36) substantially enveloping the terahertz probe (22, 32); and wherein the terahertz probe (22, 32) further comprises: a terahertz emitter/receiver in communication with a fiber optic cable, or a terahertz emitter in communication with a fiber optic cable and a terahertz receiver in communication with another fiber optic cable. said terahertz inspection device comprising a terahertz probe (22, 32), said terahertz probe (22, 32) comprising a thermal shield (26, 36) substantially enveloping the terahertz probe (22, 32); and wherein the terahertz probe (22, 32) further comprises: a terahertz emitter/receiver in communication with a fiber optic cable, or a terahertz emitter in communication with a fiber optic cable and a terahertz receiver in communication with another fiber optic cable. a terahertz emitter/receiver in communication with a fiber optic cable, or a terahertz emitter in communication with a fiber optic cable and a terahertz receiver in communication with another fiber optic cable.
A method of fabricating an optoelectronic device by depositing a solid material on a non-planar substrate and, comprising: coating a surface of an elastomeric stamp with a material to be deposited, which material is a metal or a metallic compound; deforming the elastomeric stamp using a vacuum mold, wherein the vacuum mold comprises a surface which has the same shape as the substrate on which the material is to be deposited; placing the non-planar substrate over the coated, deformed elastomeric stamp, wherein the elastomeric stamp is located between a surface of the vacuum mold and a surface of the non-planar substrate; transferring the material from the elastomeric stamp to the non-planar substrate to form an electrode of a photodetector or an organic light emitting diode; and after transferring the material, removing the elastomeric stamp from a deposited layer. coating a surface of an elastomeric stamp with a material to be deposited, which material is a metal or a metallic compound; deforming the elastomeric stamp using a vacuum mold, wherein the vacuum mold comprises a surface which has the same shape as the substrate on which the material is to be deposited; placing the non-planar substrate over the coated, deformed elastomeric stamp, wherein the elastomeric stamp is located between a surface of the vacuum mold and a surface of the non-planar substrate; transferring the material from the elastomeric stamp to the non-planar substrate to form an electrode of a photodetector or an organic light emitting diode; and after transferring the material, removing the elastomeric stamp from a deposited layer.
Saprophytic live bacteria mixture originating from the axillia of a human donor not suffering from Hidradenitis Suppurativa and who is having no previous record of dermatological diseases or other systemic diseases, which potentially could affect the cutaneous microbiome of the donor, for use in topical treatment of Hidradenitis Suppurativa in intertriginous skin areas of a human subject, wherein said saprophytic live bacteria mixture comprises at least the following: Corynebacterium spp, Acinetobacter spp, Moraxella spp, Staphylococcus spp, Anaerococcus spp and Propionibacterium spp, wherein the Propionibacterium spp of the mixture is dominated by Propionibacterium acnes and with the proviso that the mixture does not contain Porphyromonas and Peptoniphilus spp
A hearing aid restoration apparatus, comprising: a housing with at least a first pneumatic port that selectively outputs air and a second pneumatic port that selectively sucks in air; a user interface that receives a user input to select a mode of operation of the hearing aid restoration apparatus, a first mode of operation providing no suction at the second pneumatic port and a second mode of operation providing suction at the second pneumatic port; a pneumatic valve that includes at least an input port, a first output port, and a second output port, wherein the first output port is configured to provide a vacuum chamber mode and the second output port is configured to provide a vacuum wand mode; a pump that includes a pump inlet port and a pump outlet port, wherein the input port of the valve is fluidly connected to the pump inlet port, and the second output port of the pneumatic valve is fluidly connected to the second pneumatic port, characterized in that the apparatus furthermore comprises a controller that detects what mode of operation is selected based on a measurement of pressure inside the hearing aid restoration apparatus; wherein the pressure measurement is provided by a vacuum sensor that measures a level of vacuum in an air space that is not fluidly connected to the second pneumatic port and outputs a signal representative of the measured level of vacuum to the controller, and the pneumatic valve toggles a fluid connection from the input port of the pneumatic valve to either the first output port or the second output port. a housing with at least a first pneumatic port that selectively outputs air and a second pneumatic port that selectively sucks in air; a user interface that receives a user input to select a mode of operation of the hearing aid restoration apparatus, a first mode of operation providing no suction at the second pneumatic port and a second mode of operation providing suction at the second pneumatic port; a pneumatic valve that includes at least an input port, a first output port, and a second output port, wherein the first output port is configured to provide a vacuum chamber mode and the second output port is configured to provide a vacuum wand mode; a pump that includes a pump inlet port and a pump outlet port, wherein the input port of the valve is fluidly connected to the pump inlet port, and the second output port of the pneumatic valve is fluidly connected to the second pneumatic port, characterized in that the apparatus furthermore comprises a controller that detects what mode of operation is selected based on a measurement of pressure inside the hearing aid restoration apparatus; wherein the pressure measurement is provided by a vacuum sensor that measures a level of vacuum in an air space that is not fluidly connected to the second pneumatic port and outputs a signal representative of the measured level of vacuum to the controller, and the pneumatic valve toggles a fluid connection from the input port of the pneumatic valve to either the first output port or the second output port.
For a battery system including a battery pack and a battery management system, wherein the battery management system comprises a central processing unit, CPU, and is coupled to a user input device, the battery system having output battery terminals, a method for alternating the state of the battery system between a connected state and a disconnected state by connecting and disconnecting the output battery terminals to and from the battery pack, comprising: inputing a first input command to the user input device;, determining by the CPU whether the user input device has been actuated; if the user input device has been actuated, initiating, by the CPU, a first time window for a first period of time, wherein the first period of time has a duration under control of the battery management system; maintaining the first input command until completion of the first time window to initiate, by the CPU, a second time window for a second period of time, wherein the second period of time has a duration under control of the battery management system; inputting a second input command to the user input device during the second period of time; and disconnecting, by the CPU, the output battery terminals from the battery pack only if the second input command occurs during the second period of time. inputing a first input command to the user input device;, determining by the CPU whether the user input device has been actuated; if the user input device has been actuated, initiating, by the CPU, a first time window for a first period of time, wherein the first period of time has a duration under control of the battery management system; maintaining the first input command until completion of the first time window to initiate, by the CPU, a second time window for a second period of time, wherein the second period of time has a duration under control of the battery management system; inputting a second input command to the user input device during the second period of time; and disconnecting, by the CPU, the output battery terminals from the battery pack only if the second input command occurs during the second period of time.