mhurhangee/ep-ind-claims huggingface dataset:
Baking module for bakery, Viennese pastry and similar products, including a baking chamber comprising a roof and a movable or static hearth on which the said products directly or indirectly rest through a suitable baking support such as a plate, a net, a baking mold or the like, said module being also provided at least with heating means at the roof, the latter comprising a plenum in which a heat-transfer fluid circulates from an inlet to at least one outlet (16a, 16b), the plenum including a plurality of orifices for blowing heat-transfer fluid into the baking chamber, said module also comprising at least: - means for concealing said blowing orifices movable between at least two positions (13, 14), one for concealing said blowing orifices, the other one for opening the latter; - means for sucking (22a, 22b) the heat-transfer fluid passing through the plenum and/or blown into the baking chamber, said concealment means consist of closing means in the form of a plate in which orifices are formed in an arrangement consistent with the blowing orifices, so that, in the open position, these orifices are located in front of said blowing orifices for a convection heating of the products and so that, in the concealment position, said orifices in the plate are offset with respect to said blowing orifices, said plate closing the latter and leading to a radiation heating of said products, said baking module being characterized in that said plenum includes, on the one hand, a first outlet for the heat-transfer fluid defined by the blowing orifices, and a second outlet in communication with a suction duct, said module also including at least one suction duct in communication with said chamber, said suction ducts (22a, 22b) being each provided with respective closing means (24, 21) capable of passing at least from an open position to a closed position, the means for closing the suction outlet being in the open position, respectively in the closed position, when said concealment means are in the open position, respectively in the concealment position, while the means for closing the suction outlet are in the open position, respectively in the closed position, when said concealment means are in the concealment position, respectively in the open position. - means for concealing said blowing orifices movable between at least two positions (13, 14), one for concealing said blowing orifices, the other one for opening the latter; - means for sucking (22a, 22b) the heat-transfer fluid passing through the plenum and/or blown into the baking chamber,
A water soluble cannabinoid composition comprising: a purified cannabinoid mixture; at least one carrier oil; and at least one water soluble agent chosen from a complex carbohydrate, a polyol, a polysaccharide, an oligosaccharide, or a combination thereof; wherein the composition is soluble in water at a temperature less than or equal to about 20°C, the composition being in the form of agglomerated particles. a purified cannabinoid mixture; at least one carrier oil; and at least one water soluble agent chosen from a complex carbohydrate, a polyol, a polysaccharide, an oligosaccharide, or a combination thereof; wherein the composition is soluble in water at a temperature less than or equal to about 20°C, the composition being in the form of agglomerated particles.
Pallet truck comprising two forks for lifting and transporting a pallet, a hydraulic lifting system comprising a first hydraulic pump and a hydraulic cylinder, a tiller arm that is operable for powering the first hydraulic pump by a manual lifting an lowering movement of the tiller arm, such that a load is lifted by actuating of the hydraulic cylinder on the forks to a maximal height H and at a maximal weight M, further comprised are a main wheel that are hinged in a vertical axle to which they are attached, the tiller arm is connected to the wheels for steering them by rotating in the vertical axle, characterized in that the pallet truck comprises an electric motor and a second hydraulic pump powered by the electric motor, wherein the electric motor and the second hydraulic pump are operable to lift the forks to the maximal height h, wherein h < H, and/or wherein the electric motor and second hydraulic pump has a capacity to lift a maximal load of mass m, wherein m < M.
A pre-vapor formulation of an e-vaping device, the pre-vapor formulation comprising: an ion exchanger or an ion exchanger and a chelating agent; nicotine; and a vapor former configured to form a vapor of the pre-vapor formulation, wherein the ion exchanger comprises at least one of styrene-divinylbenzene, a crosslinked polyacrylate carboxylic acid and a styrene divinylbenzene copolymer. an ion exchanger or an ion exchanger and a chelating agent; nicotine; and a vapor former configured to form a vapor of the pre-vapor formulation, wherein the ion exchanger comprises at least one of styrene-divinylbenzene, a crosslinked polyacrylate carboxylic acid and a styrene divinylbenzene copolymer.
An electro-acoustic transducer comprising: a conductive substrate provided on one surface with cells and on the opposite surface with a plurality of spaced electrodes (221, 222); and a pad substrate provided on one surface with a plurality of spaced pads (261, 262), wherein said one surface of said pad substrate faces the said opposite surface of the conductive substrate, and wherein each pad of the plurality of pads is bonded to a corresponding electrode provided on the conductive substrate; wherein each of the electrodes and each of the pads comprises a respective first electric pattern (221a, 261a; 622a, 662a; 722a, 762a; 822a, 862; 922, 962a) for electrical connection between the corresponding electrodes and pads; characterised in that each of the electrodes of the plurality of electrodes and/or each of the pads of the plurality of pads comprises a further pattern; wherein the further pattern is a dummy pattern provided around and separated from the respective first electric pattern of the respective electrode or pad, such that, for each electrode and/or pad, portions (221b, 261b; 622b, 662b; 722b, 762b; 822b, 862; 922, 962b) of the respective further pattern are positioned between the respective first electric pattern and each adjacent electrode and/or pad; and wherein each of the electrodes is bonded to its corresponding pad through their respective first and further patterns. a conductive substrate provided on one surface with cells and on the opposite surface with a plurality of spaced electrodes (221, 222); and a pad substrate provided on one surface with a plurality of spaced pads (261, 262), wherein said one surface of said pad substrate faces the said opposite surface of the conductive substrate, and wherein each pad of the plurality of pads is bonded to a corresponding electrode provided on the conductive substrate; wherein each of the electrodes and each of the pads comprises a respective first electric pattern (221a, 261a; 622a, 662a; 722a, 762a; 822a, 862; 922, 962a) for electrical connection between the corresponding electrodes and pads; characterised in that each of the electrodes of the plurality of electrodes and/or each of the pads of the plurality of pads comprises a further pattern; wherein the further pattern is a dummy pattern provided around and separated from the respective first electric pattern of the respective electrode or pad, such that, for each electrode and/or pad, portions (221b, 261b; 622b, 662b; 722b, 762b; 822b, 862; 922, 962b) of the respective further pattern are positioned between the respective first electric pattern and each adjacent electrode and/or pad; and wherein each of the electrodes is bonded to its corresponding pad through their respective first and further patterns.
A sound absorbing body comprising a non-woven fabric or a non-woven fabric laminate, wherein the non-woven fabric or the non-woven fabric laminate comprises a fiber that has an average fiber diameter of less than 3,000 nm, the non-woven fabric or the non-woven fabric laminate has a thickness of less than 10 mm, and the non-woven fabric or the non-woven fabric laminate has a bulk density of greater than 70 kg/m 3 and less than 750 kg/m 3, the sound absorbing body being characterized in that: the non-woven fabric or the non-woven fabric laminate has a unit thickness flow resistance of greater than 4.0 E+06 Ns/m 4 and less than 5.0 E+08 Ns/m 4, the non-woven fabric or the non-woven fabric laminate has a porosity of lower than 0.92 and the sound absorbing body exhibits a peak of sound absorption of lower than 3,000 Hz wherein the non-woven fabric or the non-woven fabric laminate comprises a fiber that has an average fiber diameter of less than 3,000 nm, the non-woven fabric or the non-woven fabric laminate has a thickness of less than 10 mm, and the non-woven fabric or the non-woven fabric laminate has a bulk density of greater than 70 kg/m 3 and less than 750 kg/m 3, the sound absorbing body being characterized in that: the non-woven fabric or the non-woven fabric laminate has a unit thickness flow resistance of greater than 4.0 E+06 Ns/m 4 and less than 5.0 E+08 Ns/m 4, the non-woven fabric or the non-woven fabric laminate has a porosity of lower than 0.92 and the sound absorbing body exhibits a peak of sound absorption of lower than 3,000 Hz the non-woven fabric or the non-woven fabric laminate has a unit thickness flow resistance of greater than 4.0 E+06 Ns/m 4 and less than 5.0 E+08 Ns/m 4, the non-woven fabric or the non-woven fabric laminate has a porosity of lower than 0.92 and the sound absorbing body exhibits a peak of sound absorption of lower than 3,000 Hz
Process for generating carbon-based secondary energy carriers or base chemicals by coupling oxyfuel combustion of carbon-based fuels and high-temperature solid electrolyte electrolysis (HT-SOEL) (2, 2A, 2K), wherein, for the oxyfuel combustion, oxygen generated from the HT-SOEL is used as an oxidizing agent, and the product gases (4, 4', 5, 5) obtained from the oxyfuel combustion and/or from the cathode chamber of the HT-SOEL, and, optionally, additionally externally supplied hydrogen, are reacted exothermically in a manner known per se to form carbon-based secondary energy carriers or base chemicals, wherein, in the process, heat is coupled out at different temperature levels in such a way that waste heat I from the exothermic synthesis of carbon-based secondary energy carriers or base chemicals is used to generate steam for the HT-SOEL (2, 2A, 2K), waste heat II inherent in the product gases (3, 4, 4', 5, 5') of the HT- SOEL is used to preheat the steam to be supplied to the HT-SOEL, and waste heat III obtained from the oxyfuel combustion is fed to the HT-SOEL (2, 2A, 2K), wherein the HT- SOEL is operated in endothermic operation, in which the operating point for the cell voltage applied per electrolysis cell is between the electrical energy requirement deltaG and the total energy requirement deltaH, and the missing energy requirement of the HT-SOEL in endothermic operation is covered by the waste heat III, and wherein the electrical efficiency for the HT-SOEL is more than 100% and up to 140% if the electrical efficiency (ηE lektr) of the HT-SOEL is defined according to the following formula η Elektr = V ′ H 2 m 3 STP / h ∗ LHV H 2 kWh / m 3 STP / P el kW ∗ 100 % wherein V' H2 denotes the H 2 volume flow, LHV H2 denotes the lower heating value of the hydrogen generated, STP denotes the standard temperature and pressure, and P e1 denotes the electrical power.
A method of operating an inserter comprising a base, a spring, a sharp, and a shuttle, the method comprising: positioning an end of the base of the inserter on a skin surface of a subject, the inserter containing an analyte monitoring assembly including electronics coupled to an analyte sensor (14, 14') and comprising a power source, the electronics operable to communicate analyte data; displacing the shuttle, the analyte monitoring assembly and the sharp from a first position within the inserter to a second position where at least a portion of the analyte sensor of the analyte monitoring assembly is in contact with interstitial fluid under the skin surface; and automatically retracting the shuttle and the sharp from the second position and into the inserter with a force applied by the spring to the shuttle while the end of the base is maintained on the skin surface. positioning an end of the base of the inserter on a skin surface of a subject, the inserter containing an analyte monitoring assembly including electronics coupled to an analyte sensor (14, 14') and comprising a power source, the electronics operable to communicate analyte data; displacing the shuttle, the analyte monitoring assembly and the sharp from a first position within the inserter to a second position where at least a portion of the analyte sensor of the analyte monitoring assembly is in contact with interstitial fluid under the skin surface; and automatically retracting the shuttle and the sharp from the second position and into the inserter with a force applied by the spring to the shuttle while the end of the base is maintained on the skin surface.
Light apparatus for a vehicle, wherein the light apparatus comprises: - light source for the provision of primary light with a first wavelength spectrum, - a conversion element for converting the primary light into secondary light with a predetermined second wavelength spectrum and emission of the secondary light, characterised by - at least one first magnetic field generator for generating a magnetic field in the conversion element, whereby within the conversion element the emission of the secondary light is reduced - light source for the provision of primary light with a first wavelength spectrum, - a conversion element for converting the primary light into secondary light with a predetermined second wavelength spectrum and emission of the secondary light, - at least one first magnetic field generator for generating a magnetic field in the conversion element, whereby within the conversion element the emission of the secondary light is reduced
Controlled screwing device for implementing screwing operations successively comprising a pre-screwing phase, a final screwing phase to reach a desired target tightening torque to which the screwing is to take place, and a braking step, said screwing device comprising: - an electric motor comprising a stator and a rotor; - a drive shaft capable of moving in rotation; - a coupling connecting said rotor to said drive shaft; - means for determining and recording in a screwing report, at the end of said final screwing phase during said braking, an output torque T output applied by said drive shaft, said means for determining the output torque T output comprising: -- a torque sensor comprising a deforming element integrated into the screwing device, the axis of said deforming element being parallel to the axis of said rotor; -- means for measuring the acceleration or deceleration of said rotor; -- means for calculating said output torque T output from the torque T sensor measured by said torque sensor and from the acceleration or deceleration of said rotor measured by said means for measuring the acceleration or deceleration of said rotor. - an electric motor comprising a stator and a rotor; - a drive shaft capable of moving in rotation; - a coupling connecting said rotor to said drive shaft; - means for determining and recording in a screwing report, at the end of said final screwing phase during said braking, an output torque T output applied by said drive shaft, said means for determining the output torque T output comprising: -- a torque sensor comprising a deforming element integrated into the screwing device, the axis of said deforming element being parallel to the axis of said rotor; -- means for measuring the acceleration or deceleration of said rotor; -- means for calculating said output torque T output from the torque T sensor measured by said torque sensor and from the acceleration or deceleration of said rotor measured by said means for measuring the acceleration or deceleration of said rotor. -- a torque sensor comprising a deforming element integrated into the screwing device, the axis of said deforming element being parallel to the axis of said rotor; -- means for measuring the acceleration or deceleration of said rotor; -- means for calculating said output torque T output from the torque T sensor measured by said torque sensor and from the acceleration or deceleration of said rotor measured by said means for measuring the acceleration or deceleration of said rotor.
A method for establishing a hard pipe stratum in a network, wherein the network comprises multiple routers and a network management system, adjacent routers of the multiple routers are connected to each other by using links that have particular bandwidths, the multiple routers form a network topology by using the links, and the method comprises: acquiring, by the network management system, bandwidths of the links in the network; instructing, by the network management system, routers in the network topology to allocate fixed bandwidths from the bandwidths of the links of the network topology, wherein links to which the fixed bandwidths are allocated form sublinks, and the sublinks and the routers that allocate the sublinks form a hard pipe stratum, wherein the hard pipe stratum is a subtopology of the network topology, and the hard pipe stratum is used to carry a leased line service; and allocating, by the network management system, a static Multiprotocol Label Switching, MPLS, label set to the hard pipe stratum, wherein the static MPLS label set is used to forward, in the hard pipe stratum, the leased line service. acquiring, by the network management system, bandwidths of the links in the network; instructing, by the network management system, routers in the network topology to allocate fixed bandwidths from the bandwidths of the links of the network topology, wherein links to which the fixed bandwidths are allocated form sublinks, and the sublinks and the routers that allocate the sublinks form a hard pipe stratum, wherein the hard pipe stratum is a subtopology of the network topology, and the hard pipe stratum is used to carry a leased line service; and allocating, by the network management system, a static Multiprotocol Label Switching, MPLS, label set to the hard pipe stratum, wherein the static MPLS label set is used to forward, in the hard pipe stratum, the leased line service.
A method for feeding electrical power into an electrical supply grid by means of at least one wind power installation or of a wind farm having a plurality of wind power installations at a grid connection point, wherein - a plurality of energy generators feed power into the electrical supply grid and - a plurality of consumers draw power from the electrical supply grid so that a power balance between the infed power and the drawn power results in the electrical supply grid, which power balance is positive when more power is fed in than drawn, and the method comprises the following steps: - monitoring of a power indicator that is representative of the power balance in the electrical supply grid, - determination of an amount of balancing energy depending on the power indicator, - infeed of a basic electrical power depending on the available wind power, and - changing of the infeed of the basic electrical power by the determined amount of balancing energy. - a plurality of energy generators feed power into the electrical supply grid and - a plurality of consumers draw power from the electrical supply grid so that a power balance between the infed power and the drawn power results in the electrical supply grid, which power balance is positive when more power is fed in than drawn, and the method comprises the following steps: - monitoring of a power indicator that is representative of the power balance in the electrical supply grid, - determination of an amount of balancing energy depending on the power indicator, - infeed of a basic electrical power depending on the available wind power, and - changing of the infeed of the basic electrical power by the determined amount of balancing energy.
A method for creating a copy image from a hardcopy original on a reproduction system comprising display means, wherein the method comprises the steps of: a) displaying a predetermined digital image at the display means of the reproduction system according to image parameters which are set with initial image parameter values, b) reading out image parameter values entered by a user for replacing the initial image parameter values and characterizing the hardcopy original, c) displaying the predetermined digital image in accordance with the read-out image parameter values, d) determining a first conversion of image parameters mapping the initial image parameter values to the read-out image parameter values, e) determining a second conversion of image parameters by inverting the first conversion, f) scanning the hardcopy original resulting in scan-bound image parameter values, g) applying the second conversion to the scan-bound image parameter values resulting in converted image parameter values, and h) creating the copy image by taking into account the converted image parameter values. a) displaying a predetermined digital image at the display means of the reproduction system according to image parameters which are set with initial image parameter values, b) reading out image parameter values entered by a user for replacing the initial image parameter values and characterizing the hardcopy original, c) displaying the predetermined digital image in accordance with the read-out image parameter values, d) determining a first conversion of image parameters mapping the initial image parameter values to the read-out image parameter values, e) determining a second conversion of image parameters by inverting the first conversion, f) scanning the hardcopy original resulting in scan-bound image parameter values, g) applying the second conversion to the scan-bound image parameter values resulting in converted image parameter values, and h) creating the copy image by taking into account the converted image parameter values.