mhurhangee/ep-ind-claims huggingface dataset:
A liquid material discharge device comprising: a liquid chamber that is communicated with a discharge port and is supplied with a liquid material; a plunger that is coupled to a piston, and that has a tip advancing and retreating within the liquid chamber in a state not in contact with a lateral surface of the liquid chamber; a resilient member that applies a biasing force to the plunger; a main body including a piston chamber in which the piston is disposed; a solenoid valve that supplies a pressurized gas, supplied from a pressurized gas source, to the piston chamber, or that exhausts the pressurized gas from the piston chamber; and a controller that controls operation of the solenoid valve, characterised in that the solenoid valve is constituted by a plurality of solenoid valves that are connected to the piston chamber in parallel, and the plural solenoid valves are each constituted by a selector valve that is switchable over between a first position at which the pressurized gas source is communicated with the piston chamber and a second position at which the piston chamber is communicated with the atmosphere. a liquid chamber that is communicated with a discharge port and is supplied with a liquid material; a plunger that is coupled to a piston, and that has a tip advancing and retreating within the liquid chamber in a state not in contact with a lateral surface of the liquid chamber; a resilient member that applies a biasing force to the plunger; a main body including a piston chamber in which the piston is disposed; a solenoid valve that supplies a pressurized gas, supplied from a pressurized gas source, to the piston chamber, or that exhausts the pressurized gas from the piston chamber; and a controller that controls operation of the solenoid valve, characterised in that the solenoid valve is constituted by a plurality of solenoid valves that are connected to the piston chamber in parallel, and the plural solenoid valves are each constituted by a selector valve that is switchable over between a first position at which the pressurized gas source is communicated with the piston chamber and a second position at which the piston chamber is communicated with the atmosphere.
A medical imaging system comprising an illumination device, wherein the illumination device comprises: a first light source configured to emit light having a wavelength range; a second light source (120, 120b) configured to emit light having at least one predetermined wavelength band, wherein the at least one predetermined wavelength band is within the wavelength range; a dichroic mirror (115, 115b) configured to attenuate a portion of the wavelength range corresponding to the at least one predetermined wavelength band and to multiplex the second light with the first light such that the portion of the wavelength range of the first light is attenuated, wherein light multiplexed by the dichroic mirror is emitted from the illumination device along an optical axis and irradiates an observation site; characterized by a diffusion member positioned between the second light source (120, 120b) and the dichroic mirror (115, 115b). a first light source configured to emit light having a wavelength range; a second light source (120, 120b) configured to emit light having at least one predetermined wavelength band, wherein the at least one predetermined wavelength band is within the wavelength range; a dichroic mirror (115, 115b) configured to attenuate a portion of the wavelength range corresponding to the at least one predetermined wavelength band and to multiplex the second light with the first light such that the portion of the wavelength range of the first light is attenuated, wherein light multiplexed by the dichroic mirror is emitted from the illumination device along an optical axis and irradiates an observation site; characterized by a diffusion member positioned between the second light source (120, 120b) and the dichroic mirror (115, 115b).
Planetary gearbox, in particular for a wind power plant, with a gearbox housing, a central sun wheel, which is held in the gearbox housing so as to be able to rotate about a central gearbox axis of rotation, and supports an external toothing, a hollow wheel, which is arranged concentrically to the central gearbox axis of rotation in the gearbox housing and has an internal toothing, a planetary carrier, which is mounted in the gearbox housing so as to be able to rotate about the central gearbox axis of rotation, and a number of planetary wheels, which are mounted on the planetary carrier so as to be able to rotate about planetary wheel axes of rotation by means of planetary wheel bearings configured as slide bearings and have external toothings, which engage with the internal toothing of the hollow wheel and the external toothing of the sun wheel, characterised in that each planetary wheel bearing comprises two annular bearing elements (12a, 12b) which are offset by a planetary wheel axis and are held in a torsion-resistant manner hereupon, wherein cone-shaped sliding surfaces are embodied on the outer peripheral surfaces of the bearing elements (12a, 12b) such that the tapered ends of the bearing elements (12a, 12b) point to one another and wherein wheel treads corresponding to the sliding surfaces of the planetary wheel bearing are embodied on the inner peripheral surfaces of the planetary wheel.
A supersonic compressor comprising: a fluid inlet; a fluid outlet; a fluid conduit extending between said fluid inlet and said fluid outlet; at least one supersonic compressor rotor disposed within said fluid conduit and comprising a fluid flow channel comprising a throat portion; and a fluid control device coupled in fluid communication with at least one fluid source (302/304/306) and a fluid flow channel inlet of said fluid flow channel, said fluid control device being configured to channel a first fluid to said fluid flow channel inlet, said first fluid having a first plurality of fluid properties that facilitate attainment of supersonic flow of the first fluid in said throat portion of said fluid flow channel during a first operational mode of said supersonic compressor; characterised in that said fluid control device is further configured to channel a second fluid to said fluid flow channel inlet, said second fluid having a second plurality of fluid properties that permit maintenance of supersonic flow of the second fluid in said throat portion of said fluid flow channel during a second operational mode of said supersonic compressor; wherein said first fluid and said second fluid are one of: different singular gases; and different gaseous mixtures. a fluid inlet; a fluid outlet; a fluid conduit extending between said fluid inlet and said fluid outlet; at least one supersonic compressor rotor disposed within said fluid conduit and comprising a fluid flow channel comprising a throat portion; and a fluid control device coupled in fluid communication with at least one fluid source (302/304/306) and a fluid flow channel inlet of said fluid flow channel, said fluid control device being configured to channel a first fluid to said fluid flow channel inlet, said first fluid having a first plurality of fluid properties that facilitate attainment of supersonic flow of the first fluid in said throat portion of said fluid flow channel during a first operational mode of said supersonic compressor; characterised in that said fluid control device is further configured to channel a second fluid to said fluid flow channel inlet, said second fluid having a second plurality of fluid properties that permit maintenance of supersonic flow of the second fluid in said throat portion of said fluid flow channel during a second operational mode of said supersonic compressor; wherein said first fluid and said second fluid are one of: different singular gases; and different gaseous mixtures. different singular gases; and different gaseous mixtures.
Method for controlling the operating behaviour of a diesel engine of a motor vehicle, in which a vehicle guidance computer controls an electronic fuel injection system as a function of the engine rotational speed, characterized in that the acceleration of the engine rotational speed is controlled by a characteristic diagram which is programmed into the vehicle guidance computer and which predefines the setpoint values of the acceleration of the rotational speed, of the engine rotational speed and of the speed of the vehicle in relation to one another, in such a way that the acceleration of the engine rotational speed is limited in a vehicle-speed-dependent and engine-rotational-speed-dependent fashion by means of the characteristic diagram.
A memory device comprising: a communication interface to communicate over a link to a memory controller that is external of the memory device; data access logic configured to read data from memory cells in a storage array of the memory device, wherein the communication interface is configured to output the read data through the communication interface over the link to the memory controller; error correction logic configured to perform error detection and correction of the read data using an error correction code associated with the read data, wherein the communication interface is configured to transfer the read data from the storage array of the memory device over the link to the memory controller prior to completion of the error detection and correction of the read data by the error correction logic; and wherein the error correction logic is configured to output an indication of failure to the memory controller in response to the error correction logic detecting an error in the read data. a communication interface to communicate over a link to a memory controller that is external of the memory device; data access logic configured to read data from memory cells in a storage array of the memory device, wherein the communication interface is configured to output the read data through the communication interface over the link to the memory controller; error correction logic configured to perform error detection and correction of the read data using an error correction code associated with the read data, wherein the communication interface is configured to transfer the read data from the storage array of the memory device over the link to the memory controller prior to completion of the error detection and correction of the read data by the error correction logic; and wherein the error correction logic is configured to output an indication of failure to the memory controller in response to the error correction logic detecting an error in the read data.
Railway vehicle locomotive, comprising: - a central corridor which extends along a longitudinal axis of the locomotive and separates two lateral service compartments (3, 4), - a roof structure which extends above the central corridor and the lateral service compartments (3, 4), - a body structure which supports the roof structure, characterised in that it comprises a cable harness support assembly which is fixed beneath the body structure above the central corridor and beneath the roof structure, and at least one cable harness fixed in the support assembly, in that the support assembly has open longitudinal sides through which cables of the cable harness are guided towards the lateral service compartments (3, 4), and in that the support assembly is accessible through upper and lower longitudinal sides. - a central corridor which extends along a longitudinal axis of the locomotive and separates two lateral service compartments (3, 4), - a roof structure which extends above the central corridor and the lateral service compartments (3, 4), - a body structure which supports the roof structure,
Method for monitoring a parameter of a tire of a vehicle using a wheel unit (4a-4d) assigned to the tire, wherein the wheel unit is adapted to send data packets relating to the parameter of the tire to a vehicle based receiver, the method comprising the steps of - encoding (S2, S15) at least a part of each data packet with an authentication marker by the wheel unit, - decoding (S5, S19) the encoded part of the data packets received at the receiver with an expected authentication marker, - verifying (S6, S20) at the receiver if the decoded data packets are valid, - establishing shared knowledge between the wheel unit and the receiver (S9-S12), wherein the shared knowledge comprises a sequence of authentication markers, characterized in that the step of establishing shared knowledge between the wheel unit and the receiver comprises the steps of - initializing a first pseudo random number generator being part of the wheel unit and a second pseudo random number generator being part of the receiver with a same seed value, - generating a first sequence of pseudo random numbers to be used as authentication markers at the wheel unit using the first pseudo random number generator, and - generating a second sequence of pseudo random numbers to be used as authentication markers at the receiver using the second pseudo random number generator, such that the first and the second sequence are identical and constitute shared knowledge. - encoding (S2, S15) at least a part of each data packet with an authentication marker by the wheel unit, - decoding (S5, S19) the encoded part of the data packets received at the receiver with an expected authentication marker, - verifying (S6, S20) at the receiver if the decoded data packets are valid, - establishing shared knowledge between the wheel unit and the receiver (S9-S12), wherein the shared knowledge comprises a sequence of authentication markers, - initializing a first pseudo random number generator being part of the wheel unit and a second pseudo random number generator being part of the receiver with a same seed value, - generating a first sequence of pseudo random numbers to be used as authentication markers at the wheel unit using the first pseudo random number generator, and - generating a second sequence of pseudo random numbers to be used as authentication markers at the receiver using the second pseudo random number generator, such that the first and the second sequence are identical and constitute shared knowledge.
An antagonistic antibody that specifically binds to an ActRII polypeptide for use in treating or preventing muscle atrophy, sarcopenia, cachexia, muscle wasting syndrome, amyotrophic lateral sclerosis, muscular dystrophy, neurodegenerative disease, musculodegenerative or neuromuscular disorder.
A Clostridial neurotoxin for use in a method for treating premature ejaculation of a patient in need thereof, the method comprising the step of locally administering the Clostridial neurotoxin to the patient, thereby treating premature ejaculation of the patient, wherein local administration is administration to a penis of the patient.
A method comprising: obtaining, by a first thread of a plurality of execution threads (26, 28, 32, 40) for at least one routing protocol process executing on processing circuitry of a network device, an allocation of first labels drawn from a label space for a network service; adding, by the first thread, the first labels to a first local label pool for the first thread; generating, by the first thread, after obtaining the allocation of the first labels, a labeled route comprising a route for the network service and a label assigned by the first thread from the first local label pool; outputting, by the network device, the labeled route; removing, by the first thread, the label from the first local label pool to obtain a reduced first local label pool; generating, by the first thread, after obtaining the reduced first local label pool, another labeled route comprising another route for the network service and another label assigned by the first thread from the reduced first local label pool; and outputting, by the network device, the another labeled route. obtaining, by a first thread of a plurality of execution threads (26, 28, 32, 40) for at least one routing protocol process executing on processing circuitry of a network device, an allocation of first labels drawn from a label space for a network service; adding, by the first thread, the first labels to a first local label pool for the first thread; generating, by the first thread, after obtaining the allocation of the first labels, a labeled route comprising a route for the network service and a label assigned by the first thread from the first local label pool; outputting, by the network device, the labeled route; removing, by the first thread, the label from the first local label pool to obtain a reduced first local label pool; generating, by the first thread, after obtaining the reduced first local label pool, another labeled route comprising another route for the network service and another label assigned by the first thread from the reduced first local label pool; and outputting, by the network device, the another labeled route.
An air hood for Yankee rolls, comprising: at least one supply circuit (5, 6, 7) to supply dry hot air towards outlets to a working area; wherein the supply circuit comprises at least a supply duct, dry hot air distribution boxes in fluid communication with the supply duct, and inflate channels for supplying dry hot air in the working area of the air hood, said inflate channels being in fluid communication with the distribution boxes and being provided with said outlets; and at least one suction circuit to suck wet air from the working area; wherein the suction circuit comprises an inner space inside the air hood and at least a suction duct in fluid communication with the inner space; wherein the distribution boxes and at least a portion of the supply duct (5, 6, 7) are arranged in the inner space; characterized by a thermal insulation at least partially insulating the supply circuit (5, 6, 7) from the suction circuit, said thermal insulation comprising a thermal insulation of the distribution boxes. at least one supply circuit (5, 6, 7) to supply dry hot air towards outlets to a working area; wherein the supply circuit comprises at least a supply duct, dry hot air distribution boxes in fluid communication with the supply duct, and inflate channels for supplying dry hot air in the working area of the air hood, said inflate channels being in fluid communication with the distribution boxes and being provided with said outlets; and at least one suction circuit to suck wet air from the working area; wherein the suction circuit comprises an inner space inside the air hood and at least a suction duct in fluid communication with the inner space; wherein the distribution boxes and at least a portion of the supply duct (5, 6, 7) are arranged in the inner space;
Device for extracorporeal blood treatment, comprising a blood supply line leading to a unit for obtaining one or more blood constituents, a blood return line leading away from the unit for obtaining one or more blood constituents, a line leading to a treatment unit for treating the obtained blood constituent(s), a line which leads away from the treatment unit and comprises a first line portion leading to the blood return line and a second line portion leading to a collection container, and means for switching the fluid flow between a first direction in which fluid flows through the first line portion of the line leading away from the treatment unit, and a second direction in which fluid flows through the second line portion of the line leading away from the treatment unit, characterised in that an apparatus is provided for monitoring the fluid flow through the first or second line portion (12A, 12B) of the line leading away from the treatment unit, the monitoring apparatus comprising means for determining the weight of the collection container and an evaluation unit which is designed in such a way that, in order to monitor the fluid flow, a change in the weight of the collection container can be ascertained.
A method of providing ballasted clarification of water or wastewater, comprising: introducing an influent into a first zone, the influent comprising the water or wastewater and a coagulant; agitating or mixing the influent in the first zone, wherein flocs develop in the influent caused at least in part by the coagulant; providing the influent from the first zone into a second zone; introducing polymer and ballast particles into the influent in the second zone, wherein the ballast particles have an aspect ratio of less than 1.15; agitating or mixing the influent in the second zone, causing the ballast to move through the influent and penetrate the flocs; providing the influent from the second zone into a third zone; agitating or mixing the influent in the third zone, wherein the agitation or mixing in the third zone causes larger flocs to form through collision of smaller flocs among the flocs; providing the influent into a clarifying tank having a bottom and a top, wherein the ballast particles in flocs cause the flocs to settle to the bottom of the clarifier; outputting an effluent from the top of the clarifying tank, the effluent comprising clear or substantially clear water. introducing an influent into a first zone, the influent comprising the water or wastewater and a coagulant; agitating or mixing the influent in the first zone, wherein flocs develop in the influent caused at least in part by the coagulant; providing the influent from the first zone into a second zone; introducing polymer and ballast particles into the influent in the second zone, wherein the ballast particles have an aspect ratio of less than 1.15; agitating or mixing the influent in the second zone, causing the ballast to move through the influent and penetrate the flocs; providing the influent from the second zone into a third zone; agitating or mixing the influent in the third zone, wherein the agitation or mixing in the third zone causes larger flocs to form through collision of smaller flocs among the flocs; providing the influent into a clarifying tank having a bottom and a top, wherein the ballast particles in flocs cause the flocs to settle to the bottom of the clarifier; outputting an effluent from the top of the clarifying tank, the effluent comprising clear or substantially clear water.