mhurhangee/ep-ind-claims huggingface dataset:
Delivery device for the controlled delivery of fluids and/or flowing substances, said device being able to be coupled to the mouth of an elastically deformable container, said delivery device comprising an inlet opening for the fluid, in correspondence with said mouth, an outlet opening for the fluid and a substantially "S" shaped delivery path able to connect said inlet opening with said outlet opening, said substantially "S" shaped path comprising a first conduit or inlet conduit, wherein one of its ends corresponds to the inlet opening for the fluid from within said container, a second conduit or intermediate reverse conduit, communicating with the first conduit and oriented towards its opposite direction, and a third conduit or outlet conduit, communicating with the second conduit and oriented towards its opposite direction, wherein one of its ends corresponds to the outlet opening for the fluid, said delivery device being characterized in that said first and second conduits are ring-shaped, wherein said first conduit externally embraces said second conduit and said second conduit externally embraces said third conduit, in that said first conduit is subdivided in a plurality of channels or micro-channels, in that it further comprises a ring-shaped chamber, said ring-shaped chamber surrounding said first conduit, and in that it comprises a ring-shaped stop element in correspondence of said inlet opening, suitable for reducing the outflow of the fluid, and able to form a ring-shaped fourth conduit or peripheral conduit, said fourth conduit communicating with said inlet opening and said first conduit, together forming a two-curves path.
A pressure generating device with a piston-cylinder unit, which comprises a bilaterally acting piston, which separates two working spaces (3a, 3b) in the cylinder from one another in a sealing manner, wherein the piston has two, in particular differently large, effective surfaces (A1, A2) and each effective surface (A1, A2) of the piston respectively defines a working space (A1, A2), wherein each working space (3a, 3b) is connected via a first hydraulic line (H3, H4) to a hydraulic circuit (K1, K2), wherein at least one hydraulic chamber of a consumer (V1K1, V1K2, V2K, V3K, V4K) is connected to each hydraulic circuit (K1, K2), wherein a drive drives the piston of the piston-cylinder unit, characterised in that - each working space (3a, 3b) is connected by means of a second hydraulic line (H1, H2) with a reservoir vessel for a hydraulic medium, wherein in each second hydraulic line (H1, H2) a switching valve (PD1, PD2) is arranged for the optional closure or opening of the hydraulic line (H1, H2). - each working space (3a, 3b) is connected by means of a second hydraulic line (H1, H2) with a reservoir vessel for a hydraulic medium, wherein in each second hydraulic line (H1, H2) a switching valve (PD1, PD2) is arranged for the optional closure or opening of the hydraulic line (H1, H2).
Use of a fiber comprising an inhibitor of virulence factors production fixed to the fiber by chemical bonding as an inhibitory fiber against virulence factors production, wherein the inhibitor of virulence factors production includes at least one compound selected from the group consisting of a phosphate group-containing compound, a carboxylic acid group-containing compound, and a ketone group-containing compound.
A microwave heating apparatus comprising: a cavity arranged to receive a load; a microwave generator arranged to generate microwaves; a transmission line arranged to transmit the generated microwaves to the cavity; a sensing device arranged to measure electromagnetic field strengths for providing information about the phase and the amplitude of a reflection coefficient, the reflection coefficient being representative of the ratio between the amount of microwaves reflected back towards the microwave generator and the amount of microwaves transmitted in the transmission line from the microwave generator; and a control unit configured to detect whether the measured electromagnetic field strengths correspond to a reflection coefficient having a phase within a certain interval of phases (304a-d) and an amplitude within a certain interval of amplitudes (303a-d), said certain intervals of phases and amplitudes corresponding to an operating region of the microwave generator, and to control feeding of microwaves to the cavity based on said detection. a cavity arranged to receive a load; a microwave generator arranged to generate microwaves; a transmission line arranged to transmit the generated microwaves to the cavity; a sensing device arranged to measure electromagnetic field strengths for providing information about the phase and the amplitude of a reflection coefficient, the reflection coefficient being representative of the ratio between the amount of microwaves reflected back towards the microwave generator and the amount of microwaves transmitted in the transmission line from the microwave generator; and a control unit configured to detect whether the measured electromagnetic field strengths correspond to a reflection coefficient having a phase within a certain interval of phases (304a-d) and an amplitude within a certain interval of amplitudes (303a-d), said certain intervals of phases and amplitudes corresponding to an operating region of the microwave generator, and to control feeding of microwaves to the cavity based on said detection.
ORC system (Organic Rankine Cycle) at least partially co-generative for the production of electric energy and the heating of a user fluid, the system comprising: - at least one main thermal source of heating of a vector fluid, - a primary circuit covered by the vector fluid, that comes from said thermal source, put into circulation by at least a recycling pump, - a thermal exchange group for the exchange of heat between the vector fluid and a work fluid circulating in a relative work fluid circuit by means of a pump, - an electric expander-generator group supplied in the entrance by the work fluid exiting from said thermal exchange group (11 -13), and - at least one condenser group connected to the exit of the electric expander-generator group, characterized by at least two regenerative exchangers positioned in series on the path of the work fluid between the exit of the electric expander-generator group and the condenser inlet of the ORC system, and by at least a heat exchanger-user connected by means of an offtake line to at least one of said regenerative exchangers to receive from it at least a part of the rate of flow of the work fluid and crossed by the user fluid to be heated by means of a thermal exchange with said rate of work fluid, and where the part of the rate of flow of the derived work fluid is returned to the same regenerative exchanger after having crossed the exchanger user. - at least one main thermal source of heating of a vector fluid, - a primary circuit covered by the vector fluid, that comes from said thermal source, put into circulation by at least a recycling pump, - a thermal exchange group for the exchange of heat between the vector fluid and a work fluid circulating in a relative work fluid circuit by means of a pump, - an electric expander-generator group supplied in the entrance by the work fluid exiting from said thermal exchange group (11 -13), and - at least one condenser group connected to the exit of the electric expander-generator group,
A method of accessing a communications channel, the method comprising: assigning a time transmission interval, TTI, and at least one temporary block flow, TBF, during an Access Grant Channel, AGCH, assignment; allocating an additional field in an Immediate Assignment message sent on the AGCH; using the additional field to simultaneously assign to a mobile station, MS, at least one temporary block flow on an uplink of the communications channel and at least one temporary block flow on a downlink of the communications channel. assigning a time transmission interval, TTI, and at least one temporary block flow, TBF, during an Access Grant Channel, AGCH, assignment; allocating an additional field in an Immediate Assignment message sent on the AGCH; using the additional field to simultaneously assign to a mobile station, MS, at least one temporary block flow on an uplink of the communications channel and at least one temporary block flow on a downlink of the communications channel.
Electronic component comprising: - a substrate that extends in a plane called the "substrate plane", this substrate being equipped with electrical connections to connect the electronic component to an electronic circuit, this substrate having an upper face, - at least one electronic chip arranged on the upper face of the substrate and/or inside the substrate and electrically connected to the electrical connections by way of this substrate, - a package formed by a thick layer of electrically insulating material covering the upper face of the substrate and/or at least part of the electronic chip, the thick layer having an outer face parallel to the substrate plane, - at least one cavity (30; 82) produced inside the thick layer and situated above the electronic chip in a direction perpendicular to the substrate plane, this cavity (30; 82) having a bottom parallel to the substrate plane and at least one side wall extending from the bottom as far as the outer face of the thick layer, this cavity being totally or partly filled with a heat-absorbing material, this heat-absorbing material being different from the material forming the thick layer, - a thermal interface layer covering at least the bottom of the cavity and/or its side wall, characterized in that: - the specific heat capacity of the heat-absorbing material is greater than 1 kJ.Kg -1.K -1 at a temperature of 25 °C and at a pressure of 100 kPa, and - the thermal interface layer is made of a material having a thermal conductivity at 25 °C of greater than 100 W.m -1.K -1. - a substrate that extends in a plane called the "substrate plane", this substrate being equipped with electrical connections to connect the electronic component to an electronic circuit, this substrate having an upper face, - at least one electronic chip arranged on the upper face of the substrate and/or inside the substrate and electrically connected to the electrical connections by way of this substrate, - a package formed by a thick layer of electrically insulating material covering the upper face of the substrate and/or at least part of the electronic chip, the thick layer having an outer face parallel to the substrate plane, - at least one cavity (30; 82) produced inside the thick layer and situated above the electronic chip in a direction perpendicular to the substrate plane, this cavity (30; 82) having a bottom parallel to the substrate plane and at least one side wall extending from the bottom as far as the outer face of the thick layer, this cavity being totally or partly filled with a heat-absorbing material, this heat-absorbing material being different from the material forming the thick layer, - a thermal interface layer covering at least the bottom of the cavity and/or its side wall, - the specific heat capacity of the heat-absorbing material is greater than 1 kJ.Kg -1.K -1 at a temperature of 25 °C and at a pressure of 100 kPa, and - the thermal interface layer is made of a material having a thermal conductivity at 25 °C of greater than 100 W.m -1.K -1.
A process for treating waste comprising Mixed Plastic Waste, the process comprising: a. feeding the waste to a pyrolysis reactor, wherein the pyrolysis reactor is a fluidised bed reactor; b. pyrolysing the waste in the pyrolysis reactor to produce a pyrolysis product; c. passing the pyrolysis product through a condenser to form a liquid fraction and a gas fraction; d. monitoring an attribute of the liquid fraction, wherein the attribute is related to heat of combustion of the liquid fraction; e. adjusting the temperature and/or the residence time of the pyrolysis reactor in response to the measured attribute of the liquid fraction so as to maintain the attribute within a desired range; and f. storing the liquid fraction as a liquid, a solid or a mixture of a liquid and a solid in a tank. a. feeding the waste to a pyrolysis reactor, wherein the pyrolysis reactor is a fluidised bed reactor; b. pyrolysing the waste in the pyrolysis reactor to produce a pyrolysis product; c. passing the pyrolysis product through a condenser to form a liquid fraction and a gas fraction; d. monitoring an attribute of the liquid fraction, wherein the attribute is related to heat of combustion of the liquid fraction; e. adjusting the temperature and/or the residence time of the pyrolysis reactor in response to the measured attribute of the liquid fraction so as to maintain the attribute within a desired range; and f. storing the liquid fraction as a liquid, a solid or a mixture of a liquid and a solid in a tank.
Fume hood for a laboratory room, having a housing inside of which is located a working space that is delimited at the front by a sash, at the bottom by a bottom plate and on each side by a side wall, and a first hollow profile (10, 10') disposed on a front end face of each side wall, each first hollow profile (10, 10') having a first pressure chamber (10b, 10b') which is in fluid communication with a plurality of first openings (10d, 10d'), from which jets of air in the form of wall jets consisting of compressed air can be emitted into the working space along the respective side wall, wherein the size of the first openings (10d, 10d') and the air pressure prevailing in the first pressure chamber (10b, 10b') when the fume hood is operated according to its intended use are selected such that a fluid connection can be created between the first pressure chamber (10b, 10b') and a compressed air system installed in the building without causing a flow separation of the wall jets from the side wall in an area from a front side of the working space as far as least 25% of the depth of the working space, characterized in that at least one of the first (10d, 10d') openings is configured by a jet geometry thereof in such manner that the compressed air jet exiting the first (10d, 10d') opening is emitted into the working space as a periodically oscillating wall jet.
A rotor disk assembly for a gas turbine engine, comprising: a rotor disk that defines an axis, the rotor disk comprising a tangential blade slot within a rim of the disk; and a spacer within the tangential blade slot forming a blade slot assembly, characterized in the spacer having one or more clearance features sized to permit rotation of a rotor blade relative to the spacer from an insertion position to an installed position. a rotor disk that defines an axis, the rotor disk comprising a tangential blade slot within a rim of the disk; and a spacer within the tangential blade slot forming a blade slot assembly, characterized in the spacer having one or more clearance features sized to permit rotation of a rotor blade relative to the spacer from an insertion position to an installed position.
A metal fencing system comprising a plurality of metal fence posts and a plurality of retaining clips, each metal fence post comprising a plurality of discrete apertures arranged to receive a coupling portion (114A, 114B, 206) of a retaining clip and a surface against which fencing wire may be secured, each retaining clip comprising a straight central fencing wire securing portion and two opposing coupling portions (114A, 114B) arranged in use to cooperate with the discrete apertures and to secure the retaining clip to the metal fence post, and wherein in use fencing wire is secured between the central fencing wire securing portion and the surface against which fencing wire may be secured.
A cell growth support product configured for supporting a cell population, preferably an endothelial cell population, comprising a surface for exposure to the cell population during use, wherein said surface comprises a polyester polymer having the structure wherein n = 4-20, preferably n=4-12; and p ≥ 2, preferably p = 3 to 100 or more.
A construction machine comprising: a heat exchanger chamber defined in a machine body; at least a pair of first heat exchangers (30, 32) that are disposed so as to face each other at a predetermined interval so as to form a gap through which a worker is able to pass in the heat exchanger chamber, each of the first heat exchangers (30, 32) allowing outside air as cooling air to pass therethrough to be cooled, the outside air being introduced into the heat exchanger chamber from outside by a cooling fan; and a side outlet that is opened at a portion equivalent to a portion between both the first heat exchangers (30, 32) in a first side wall of the heat exchanger chamber, and that allows cooling air to discharge to lateral outside, the cooling air having passed through each of the first heat exchangers (30, 32) to mutually collide inside the heat exchanger chamber. a heat exchanger chamber defined in a machine body; at least a pair of first heat exchangers (30, 32) that are disposed so as to face each other at a predetermined interval so as to form a gap through which a worker is able to pass in the heat exchanger chamber, each of the first heat exchangers (30, 32) allowing outside air as cooling air to pass therethrough to be cooled, the outside air being introduced into the heat exchanger chamber from outside by a cooling fan; and a side outlet that is opened at a portion equivalent to a portion between both the first heat exchangers (30, 32) in a first side wall of the heat exchanger chamber, and that allows cooling air to discharge to lateral outside, the cooling air having passed through each of the first heat exchangers (30, 32) to mutually collide inside the heat exchanger chamber.
An electronic device package adapted for enabling thermal regulation, said electronic device package comprising: a. a housing (230, 232, 310, 410, 510, 610) comprising a thermally conductive substrate; b. a heat pipe comprising an evaporator portion (210, 212, 213, 416, 516, 616) configured as an evaporator for the heat pipe; and c. one or more light emitting elements (45, 412, 512, 612) disposed on the thermally conductive substrate and thermally connected to the evaporator portion via the thermally conductive substrate, characterised in that, the heat pipe comprises a secondary portion (220, 222, 422, 522, 622), the secondary portion being coupled to the evaporator portion by a hermetically sealed connection thereby forming the heat pipe. a. a housing (230, 232, 310, 410, 510, 610) comprising a thermally conductive substrate; b. a heat pipe comprising an evaporator portion (210, 212, 213, 416, 516, 616) configured as an evaporator for the heat pipe; and c. one or more light emitting elements (45, 412, 512, 612) disposed on the thermally conductive
A pharmaceutical composition for use in reducing the damage caused by free radicals, comprising iron ion, amifostine, and a drug carrier; wherein said drug carrier is poly(ethylene glycol)- b -poly(glutamic acid) (PEG- b -PGA).
A preparation process of black tea from yerba mate comprising the following steps: - withering the young leaves (buds) of yerba mate, where the leaves should remain dehydrating for 12 to 14 hours to remove 65 to 67% moisture, - extracting the juice from the leaves and immediately to start rolling the leaves for the first time for 20 minutes, - afterwards, the oxidation or fermentation process is performed in which the leaves are placed in sieves near a fan for about one hour, - next, the oven drying step is performed at 110 °C for about 24 minutes, and, - the last step is segregation/sorting which consists of separating the larger/whole leaf, broken leaf and particulate leaf. - withering the young leaves (buds) of yerba mate, where the leaves should remain dehydrating for 12 to 14 hours to remove 65 to 67% moisture, - extracting the juice from the leaves and immediately to start rolling the leaves for the first time for 20 minutes, - afterwards, the oxidation or fermentation process is performed in which the leaves are placed in sieves near a fan for about one hour, - next, the oven drying step is performed at 110 °C for about 24 minutes, and, - the last step is segregation/sorting which consists of separating the larger/whole leaf, broken leaf and particulate leaf.
A small cell detection method performed by a user equipment, comprising: receiving from a macro cell base station a schedulable resource for transmitting by the small cell base station a discovery signal over a first frequency, wherein resource allocation of the discovery signal is negotiated between the small cell base station and the macro cell base station in advance, wherein the discovery signal is transmitted in the schedulable resource which is reserved resource blocks of a reference signal; detecting a discovery signal transmitted by the small cell base station over the schedulable resource in the first frequency which is the operating frequency of the macro cell base station; transmitting a detection report to the macro cell base station in response to detecting the discovery signal; receiving a measurement command from the macro cell base station comprising a second frequency which is the operating frequency of the small cell base station; measuring at least a signal quality of the second frequency to generate a measurement report; and transmitting the measurement report to the macro cell base station in response to generating the measurement report of the at least one second frequency. receiving from a macro cell base station a schedulable resource for transmitting by the small cell base station a discovery signal over a first frequency, wherein resource allocation of the discovery signal is negotiated between the small cell base station and the macro cell base station in advance, wherein the discovery signal is transmitted in the schedulable resource which is reserved resource blocks of a reference signal; detecting a discovery signal transmitted by the small cell base station over the schedulable resource in the first frequency which is the operating frequency of the macro cell base station; transmitting a detection report to the macro cell base station in response to detecting the discovery signal; receiving a measurement command from the macro cell base station comprising a second frequency which is the operating frequency of the small cell base station; measuring at least a signal quality of the second frequency to generate a measurement report; and transmitting the measurement report to the macro cell base station in response to generating the measurement report of the at least one second frequency.