mhurhangee/ep-ind-claims huggingface dataset:
A large engine, configured as a uniflow-scavenged two-stroke large diesel engine or as a gas engine, having a cylinder with a gas supply system, wherein the gas supply system comprises a gas inlet valve having a gas inlet nozzle, which is configured such that it is arranged in a cylinder wall of a cylinder of the large engine such that a fuel gas provided as fuel can be supplied to a combustion space of the cylinder by means of the gas inlet nozzle in the installed state of the gas supply system, wherein the gas supply system is provided in a region of the cylinder wall between a top dead center and a bottom dead center of a piston of the large engine, characterized in that the gas inlet valve comprises a pressure space which is arranged in a valve housing, in which pressure space the fuel gas can be provided via a gas supply for storage and supply into the gas inlet nozzle in the operating state and a valve body having a valve disk arranged at a valve shaft and having a valve seat is provided in the pressure space, said valve seat sealingly cooperating with the valve disk in a closed state of the valve body such that the supply of the fuel gas from the pressure space into the gas inlet nozzle is inhibited and the valve disk can be raised from the valve seat by means of a valve drive being in operative communication with the valve shaft such that the fuel gas can be supplied to the gas inlet nozzle from the pressure space past the valve disk in an open state of the valve body, wherein the gas inlet nozzle is connected releasably to the gas inlet valve and replaceably to the cylinder wall and wherein a nozzle axis of the gas inlet nozzle is arranged at a predefinable angle (α) with respect to a valve axis of the gas inlet valve such that the fuel gas can be injected into the combustion space of the cylinder at a predefinable angle differing from zero with respect to a radial direction and/or with respect to an axial direction of the cylinder in the operating and installed state of the gas supply system.
Rotary cutting tool (1; 13; 14; 15; 17) having an axis of rotation, a shank region and a cutting region, wherein the rotary tool (1; 13; 14; 15; 17) has flutes that extend in the cutting region as far as a core profile, characterized in that the core profile contains, along the length of the cutting region, a plurality of mutually alternating portions with an increasing cross-sectional area (11; 12) and portions with a decreasing cross-sectional area (9; 10).
A septum comprising: a peripheral portion extending about a periphery of the septum, an exterior surface located on an external side of the septum, and an interior surface located on an opposite side of the septum; an unpierced penetration portion penetrable by a needle or other penetrating element extending between the exterior and interior surfaces (16, 18) that is spaced inwardly of the peripheral portion and is penetrable by the needle or other penetrating element; a flex portion located between the penetration portion and the peripheral portion; and an increased thickness portion extending between the flex portion and the penetration portion, and defining an increased thickness between the exterior and interior surfaces (16, 18) relative to the flex portion, wherein the flex portion is flexible inwardly relative to the peripheral portion during penetration of the penetration portion by a needle or other penetrating element, and the penetration portion physically interacts with and decontaminates the needle or other penetrating element; wherein the septum is configured to decontaminate a needle or other penetrating element during penetration of the penetration portion therewith by interaction between the septum and said needle or other penetrating element. a peripheral portion extending about a periphery of the septum, an exterior surface located on an external side of the septum, and an interior surface located on an opposite side of the septum; an unpierced penetration portion penetrable by a needle or other penetrating element extending between the exterior and interior surfaces (16, 18) that is spaced inwardly of the peripheral portion and is penetrable by the needle or other penetrating element; a flex portion located between the penetration portion and the peripheral portion; and an increased thickness portion extending between the flex portion and the penetration portion, and defining an increased thickness between the exterior and interior surfaces (16, 18) relative to the flex portion, wherein the flex portion is flexible inwardly relative to the peripheral portion during penetration of the penetration portion by a needle or other penetrating element, and the penetration portion physically interacts with and decontaminates the needle or other penetrating element; wherein the septum is configured to decontaminate a needle or other penetrating element during penetration of the penetration portion therewith by interaction between the septum and said needle or other penetrating element.
A method for manufacturing a membrane valve comprising the steps of: a. forming a planar body with a reed opening; b. forming a planar membrane; and, c. compressing said planar membrane to said planar body to secure said planar membrane to said planar body in said reed opening by use of a compression fit connection such that the planar membrane is in coplanar relationship with said planar body, said compression fit connection including a plurality of recesses on a rear portion of said planar membrane and a plurality of corresponding connection extensions on said planar body said connection extension configured to compression fit in a corresponding recess to secure said planar membrane to said planar body, wherein said connection arrangement between said body and same membrane is a compression fit, said compression fit includes the insertion of an extension member into a recess wherein said extension member or recess deforms when said extension member is inserted into said recess, wherein said compression fit is absent a weld, solder, braze, adhesive, or binding agent, and wherein the recesses are spaced the same distance from the rear and/or side edge of the membrane and wherein the rear portion of the membrane has a width such that a majority or all of the outer edge of the rear portion contacts the edge of the reed opening when the membrane is connected to the body. a. forming a planar body with a reed opening; b. forming a planar membrane; and, c. compressing said planar membrane to said planar body to secure said planar membrane to said planar body in said reed opening by use of a compression fit connection such that the planar membrane is in coplanar relationship with said planar body, said compression fit connection including a plurality of recesses on a rear portion of said planar membrane and a plurality of corresponding connection extensions on said planar body said connection extension configured to compression fit in a corresponding recess to secure said planar membrane to said planar body,
A method for handover of a user equipment group, wherein the method is performed by a serving base station and comprises: determining, according to a measurement report of an agent user equipment, UE, and a measurement report of UE in a UE group that are sent by the agent UE, whether the agent UE and each piece of UE in the UE group need to be handed over, wherein the UE group comprises the agent UE and each piece of UE; when the agent UE and at least one piece of UE in the UE group need to be handed over, sending a handover request message to a target base station, T-eNB, wherein the handover request message comprises at least context information of the agent UE and the at least one piece of to-be-handed-over UE that needs to be handed over and a cooperative relationship between the agent UE and the to-be-handed-over UE; receiving a handover configuration message sent by the T-eNB and sending the handover configuration message to the agent UE, wherein the handover configuration message comprises at least a physical random access channel, PRACH, resource and a cell radio network temporary identifier, C-RNTI, that are allocated by the T-eNB to the agent UE and a C-RNTI that is allocated by the T-eNB to each piece of to-be-handed-over UE that needs to be handed over; and receiving a context release message sent by the T-eNB, and releasing context resources of the agent UE and the to-be-handed-over UE. determining, according to a measurement report of an agent user equipment, UE, and a measurement report of UE in a UE group that are sent by the agent UE, whether the agent UE and each piece of UE in the UE group need to be handed over, wherein the UE group comprises the agent UE and each piece of UE; when the agent UE and at least one piece of UE in the UE group need to be handed over, sending a handover request message to a target base station, T-eNB, wherein the handover request message comprises at least context information of the agent UE and the at least one piece of to-be-handed-over UE that needs to be handed over and a cooperative relationship between the agent UE and the to-be-handed-over UE; receiving a handover configuration message sent by the T-eNB and sending the handover configuration message to the agent UE, wherein the handover configuration message comprises at least a physical random access channel, PRACH, resource and a cell radio network temporary identifier, C-RNTI, that are allocated by the T-eNB to the agent UE and a C-RNTI that is allocated by the T-eNB to each piece of to-be-handed-over UE that needs to be handed over; and receiving a context release message sent by the T-eNB, and releasing context resources of the agent UE and the to-be-handed-over UE.
A system comprising: a medical device configured to deliver electrical stimulation therapy to a patient according to a therapy program during a first period, wherein the therapy program defines a value for at least one therapy parameter for managing a psychiatric condition of the patient; and a processor configured to identify a washout period occurring during a second period that commences immediately following the first period and ends when at least one carryover effect from the therapy has substantially dissipated; a sensor configured to sense at least one physiological parameter of a patient, during the washout period, wherein the physiological parameter comprises at least one of a brain signal, a heart rate, respiratory rate, electrodermal activity, facial electromyogram or thermal activity of the patient, wherein the sensor generates a signal having a waveform indicative of the physiological parameter during the washout period; characterized by said processor configured to automatically determine a trend or amplitude of the waveform, the processor configured to compare the trend or amplitude with a predetermined template or threshold and to determine a patient mood state or a mood state probability, from a plurality of mood states, based on the comparison, and associate the patient mood state or mood state probability with the therapy program; said processor further configured to perform the above steps for a plurality of therapy programs and compare the efficacy of the therapy programs based on the associated patient mood states. a medical device configured to deliver electrical stimulation therapy to a patient according to a therapy program during a first period, wherein the therapy program defines a value for at least one therapy parameter for managing a psychiatric condition of the patient; and a processor configured to identify a washout period occurring during a second period that commences immediately following the first period and ends when at least one carryover effect from the therapy has substantially dissipated; a sensor configured to sense at least one physiological parameter of a patient, during the washout period, wherein the physiological parameter comprises at least one of a brain signal, a heart rate, respiratory rate, electrodermal activity, facial electromyogram or thermal activity of the patient, said processor configured to automatically determine a trend or amplitude of the waveform, the processor configured to compare the trend or amplitude with a predetermined template or threshold and to determine a patient mood state or a mood state probability, from a plurality of mood states, based on the comparison, and associate the patient mood state or mood state probability with the therapy program; said processor further configured to perform the above steps for a plurality of therapy programs and compare the efficacy of the therapy programs based on the associated patient mood states.
A foot operated brake valve (2', 2", 2′′′) for an air pressure brake system of a motor vehicle, having an installation plate (4', 4"), upon which a brake pedal is pivoted, and to which a housing (18', 18", 28) of an electrical control unit and/or of a pneumatic control unit is attached, wherein in an annular collar (50, 72) protruding above from the installation plate (4', 4") a spring-loaded plunger piston in actuating contact with the brake pedal is guided axially movably, characterized in that the housing (18', 18") of the control unit arranged directly below the installation plate (4', 4") comprises an intermediate flange (48, 70), which is screw connected to the principal part of the housing (18' 18") as well as the annular collar (50, 72), and that the intermediate flange (48, 70) with the annular collar (50, 72) is coaxially rotatably guided about a vertical central axis in a passage opening (40, 40') of the installation plate (4' 4") as well as non-positively connectable to the installation plate (4', 4") by means of a detachable clamping connection (62, 76, 77).
A method of testing a biological sample, the method comprising: providing a centrifuge sample holder having a camera; arranging a transparent container comprising a test medium in a recess of said centrifuge sample holder such that the test container has a fixed relationship with the camera, wherein the camera is arranged to image a portion of the container comprising said test medium; arranging said biological sample in a location of said container above and not in contact with said test medium in said container; and with the camera, imaging a mixing of said biological sample with said test medium while centrifuging the sample holder. providing a centrifuge sample holder having a camera; arranging a transparent container comprising a test medium in a recess of said centrifuge sample holder such that the test container has a fixed relationship with the camera, wherein the camera is arranged to image a portion of the container comprising said test medium; arranging said biological sample in a location of said container above and not in contact with said test medium in said container; and with the camera, imaging a mixing of said biological sample with said test medium while centrifuging the sample holder.
A turbomachine comprising a centrifugal compressor supplying, via a diffuser, an annular combustion chamber, and a system for ventilating a combustion chamber wall, the diffuser comprising an annular flange with a substantially L-shaped section that extends downstream and along the impeller of the centrifugal compressor in order to form a radial annular passageway for the flow of air communicating at its radially external end with the outlet of the compressor, characterized in that an annular case is arranged radially between the combustion chamber and the flange of the diffuser and extends axially from the diffuser to the vicinity of the outlet of the combustion chamber and of the downstream end of the flange of the diffuser, this case comprising a radially external wall of revolution for the guidance, along a radially internal wall of the combustion chamber, of an air flow coming out of the downstream end of the output axial part of the diffuser, and comprising a radially internal wall of revolution delimiting, with the flange of the diffuser, an annular channel for air coming out of the downstream end of the output axial part diffuser to pass through.
A container that is provided with a filled-up unit that is filled with and accommodates edible gelatinized material, and an extruding means that is provided such that that a width of an opening thereof gradually becomes smaller from the base end opening facing the filled-up unit toward a top end opening to externally extrude the edible gelatinized material internally filling up and accommodated in the filled-up unit, wherein the extruding means is formed being shifted from a central axis line in a direction of a width of the container, a crushing means is provided on each side of a base end opening of the extruding means, that crushes the edible gelatinized material extruded from the extruding means associated with the extruding operation of the extruding means into grains each having a size that enables easy swallowing of the grain, and a flowing unit is provided in a side portion that is an inner edge of a lateral sealed portion partitioning the filled-up unit and that is away from the extruding means, that causes the edible gelatinized material to flow toward the extruding means by pushing the filled-up unit, characterised in that edges that partition the extruding means are formed such that the interval therebetween is gradually narrowed from the base end opening toward the top end.
A system comprising: an eye-visualization system, including a slit-lamp or a microscope and configured to provide a visual image of an imaged region in an eye; an Optical Coherence Tomographic imaging system, configured to generate an OCT image of the imaged region; a refractometer, configured to generate a refractive mapping of the imaged region; and an analyser, comprising a memory and a processor configured to: receive the OCT image from the OCT imaging system; receive the refractive mapping from the refractometer; register the OCT image and the refractive mapping; combine the OCT image and refractive mapping; and execute ray tracing software to determine parameters of an eye model using the combined OCT image and refractive mapping, wherein the refractometer and the OCT imaging system are integrated with the eye visualization system. an eye-visualization system, including a slit-lamp or a microscope and configured to provide a visual image of an imaged region in an eye; an Optical Coherence Tomographic imaging system, configured to generate an OCT image of the imaged region; a refractometer, configured to generate a refractive mapping of the imaged region; and an analyser, comprising a memory and a processor configured to: receive the OCT image from the OCT imaging system; receive the refractive mapping from the refractometer; register the OCT image and the refractive mapping; combine the OCT image and refractive mapping; and execute ray tracing software to determine parameters of an eye model using the combined OCT image and refractive mapping, receive the OCT image from the OCT imaging system; receive the refractive mapping from the refractometer; register the OCT image and the refractive mapping; combine the OCT image and refractive mapping; and execute ray tracing software to determine parameters of an eye model using the combined OCT image and refractive mapping, wherein the refractometer and the OCT imaging system are integrated with the eye visualization system.
Method for the hydrogenotrophic methanogenesis of H 2 and CO 2 to form CH 4, characterized in that a gas mixture comprising natural gas, hydrogen generated and CO 2 having a minimum natural gas concentration of 10 vol% and preferably having a ratio of hydrogen and CO 2 that is stoichiometric for the formation of CH 4 is fed into an underground storage facility which comprises a gas zone and is stored there in the presence of methanogenic microorganisms.
Method for data communication between at least two participants (PL, PV1-PV3) of a wireless communication system, comprising the steps, observing the surroundings of the transmitting participant, determining the position and motion of the participants, estimating the transmission conditions for a later point in time, characterized in that the data ready for data communication stored in a transmit buffer of a participant (PL, PV1-PV3) is classified in different categories, said categories determining susceptibility of said data to transmission errors, and further comprising the steps of selecting the category of data for data transmission from the transmit buffer at a given point in time for which the transmission conditions have been estimated based on said estimated transmission conditions such that the data to be transmitted is in a category fitting to the estimated transmission conditions and transmitting the selected data, and selecting the category of data which fits best to the estimated transmission conditions for the case that no data is found in a category that is susceptible enough against the amount of transmission errors under the estimated transmission conditions and checking if the transmission conditions could be improved by link adaptation at the transmitting participant and transmitting the selected data according to said link adaptation.
Method for post-built up heat treatment of an additively manufactured component made of a gamma prime (γ') strengthened superalloy based on Ni or Co or Fe or combinations thereof, the method consisting of the following steps a) providing the additively manufactured component in the as-built condition, characterized by, then b) heating the component from room temperature up to a temperature T 1, wherein T 1 is 50 to 100 °C less than a temperature T s, at which a drop of the coefficient of thermal expansion starts, then c) holding the component for a time t 1 at T 1 to achieve a uniform component temperature, then d) heating the component by applying a fast heating with a heating rate v 2 of at least 25°C/min from T 1 to a temperature T 2 ≥ 850 °C to avoid or at least to reduce precipitation of the gamma-prime phase, then e) applying further time/temperature steps to the component depending on the purpose of the heat treatment. a) providing the additively manufactured component in the as-built condition, characterized by, then b) heating the component from room temperature up to a temperature T 1, wherein T 1 is 50 to 100 °C less than a temperature T s, at which a drop of the coefficient of thermal expansion starts, then c) holding the component for a time t 1 at T 1 to achieve a uniform component temperature, then d) heating the component by applying a fast heating with a heating rate v 2 of at least 25°C/min from T 1 to a temperature T 2 ≥ 850 °C to avoid or at least to reduce precipitation of the gamma-prime phase, then e) applying further time/temperature steps to the component depending on the purpose of the heat treatment.