mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a protein containing fermented plant based product from a defatted oleaginous plant, characterized in that it comprises the following steps: a) Forming a suspension comprising the defatted oleaginous plant in an aqueous solvent; b) Enzymatically treating the suspension obtained in step a), with the following enzymes: - at least one protein glutaminase for the solubilisation in said aqueous solvent of proteins contained in the defatted oleaginous plant, - optionally one transglutaminase, - at least one glycosidase, said enzymes being used successively or simultaneously; c) Homogenizing at a pressure higher than 30 bar to obtain a protein containing plant based product d) Optionally recovering the protein containing plant based product obtained in step c); e) Heating the plant based product to a temperature from 80°C to 140°C for 2 seconds to 10 min; and f) Inoculating the plant based product with at least one starter culture to obtain an inoculated the plant based product and fermenting the plant based product until reaching a pH from 3.0 to 5.5, preferably 4.5 to 5.0 to obtain a protein containing fermented plant based product a) Forming a suspension comprising the defatted oleaginous plant in an aqueous solvent; b) Enzymatically treating the suspension obtained in step a), with the following enzymes: - at least one protein glutaminase for the solubilisation in said aqueous solvent of proteins contained in the defatted oleaginous plant, - optionally one transglutaminase, - at least one glycosidase, said enzymes being used successively or simultaneously; - at least one protein glutaminase for the solubilisation in said aqueous solvent of proteins contained in the defatted oleaginous plant, - optionally one transglutaminase, - at least one glycosidase, c) Homogenizing at a pressure higher than 30 bar to obtain a protein containing plant based product d) Optionally recovering the protein containing plant based product obtained in step c); e) Heating the plant based product to a temperature from 80°C to 140°C for 2 seconds to 10 min; and f) Inoculating the plant based product with at least one starter culture to obtain an inoculated the plant based product and fermenting the plant based product until reaching a pH from 3.0 to 5.5, preferably 4.5 to 5.0 to obtain a protein containing fermented plant based product
A negative electrode material for nonaqueous electrolyte secondary battery, comprising the following carbon material A and carbon material B: (Carbon material A) a multilayer-structure carbon material containing a graphitic particle and an amorphous carbon covering the surface of the graphitic particle, which is a carbon material where the interplanar spacing of 002 planes by the wide-angle X-ray diffraction method is 3.37 Å or less, Lc is 900 Å or more, the tap density is 0.8 g/cm 3 or more, and the Raman R value that is a ratio of the peak intensity near 1,360 cm -1 to the peak intensity near 1,580 cm -1 in the argon ion laser Raman spectrum, is from 0.25 to 0.6, (Carbon material B) a carbon material where the interplanar spacing of 002 planes by the wide-angle X-ray diffraction method is 3.37 Å or less, Lc is 900 Å or more, the tap density is 0.8 g/cm 3 or more, and the Raman R value that is a ratio of the peak intensity near 1,360 cm -1 to the peak intensity near 1,580 cm -1 in the argon ion laser Raman spectrum, is from 0.11 to 0.2. (Carbon material A) a multilayer-structure carbon material containing a graphitic particle and an amorphous carbon covering the surface of the graphitic particle, which is a carbon material where the interplanar spacing of 002 planes by the wide-angle X-ray diffraction method is 3.37 Å or less, Lc is 900 Å or more, the tap density is 0.8 g/cm 3 or more, and the Raman R value that is a ratio of the peak intensity near 1,360 cm -1 to the peak intensity near 1,580 cm -1 in the argon ion laser Raman spectrum, is from 0.25 to 0.6, (Carbon material B) a carbon material where the interplanar spacing of 002 planes by the wide-angle X-ray diffraction method is 3.37 Å or less, Lc is 900 Å or more, the tap density is 0.8 g/cm 3 or more, and the Raman R value that is a ratio of the peak intensity near 1,360 cm -1 to the peak intensity near 1,580 cm -1 in the argon ion laser Raman spectrum, is from 0.11 to 0.2.
A torque stabilizing device for holding a driven body stably at a target position comprising: a brushless servo motor for driving a driven body; a hall device (36U, 36V, 36W) of each phase for detecting a position of permanent magnet rotor of the brushless servo motor; a switching unit that is arranged to receive a detection signal of the hall device (36U, 36V, 36W) to switch the passing of a current through a coil of each phase; a PI control computing section for performing a PI computation based on a detection value of said hall device (36U, 36V, 36W) and a predetermined target value; and an excitation duty computing section for outputting a power source control signal for said brushless servo motor based on an output signal of the PI control computing section, characterized in that a load direction detecting section is arranged to detect that the driven body is in the vicinity of a target position, by detecting an inversion of polarity of the output signal of the PI control computing section, and outputs a signal for stopping switching the phase of a current passing through said brushless servo motor to stop switching the phase of the current. a brushless servo motor for driving a driven body; a hall device (36U, 36V, 36W) of each phase for detecting a position of permanent magnet rotor of the brushless servo motor; a switching unit that is arranged to receive a detection signal of the hall device (36U, 36V, 36W) to switch the passing of a current through a coil of each phase; a PI control computing section for performing a PI computation based on a detection value of said hall device (36U, 36V, 36W) and a predetermined target value; and an excitation duty computing section for outputting a power source control signal for said brushless servo motor based on an output signal of the PI control computing section, characterized in that a load direction detecting section is arranged to detect that the driven body is in the vicinity of a target position, by detecting an inversion of polarity of the output signal of the PI control computing section, and outputs a signal for stopping switching the phase of a current passing through said brushless servo motor to stop switching the phase of the current.
A method of forming a board from a number of substantially planar layers, including the steps of a) ensuring a layer is positioned substantially in a horizontal plane; and b) applying adhesive to the layer; and c) moving the layer to a holding station including: - at least two opposed planar sections (9,10) configured to apply sideways pressure on the stack of layers; and - a plate configured to descend from above the planar sections; d) holding the layer horizontally against another layer within the holding station; e) pressing the plate down on each layer after it is held by the planar sections in the holding station; and f) repeating steps a) to e) until a stack of layers is formed having a height substantially equivalent to the desired width of the board to be formed; g) removing the stack from the holding station once the layers have had sufficient time to bond to each other. a) ensuring a layer is positioned substantially in a horizontal plane; and b) applying adhesive to the layer; and c) moving the layer to a holding station including: - at least two opposed planar sections (9,10) configured to apply sideways pressure on the stack of layers; and - a plate configured to descend from above the planar sections; - at least two opposed planar sections (9,10) configured to apply sideways pressure on the stack of layers; and - a plate configured to descend from above the planar sections; d) holding the layer horizontally against another layer within the holding station; e) pressing the plate down on each layer after it is held by the planar sections in the holding station; and f) repeating steps a) to e) until a stack of layers is formed having a height substantially equivalent to the desired width of the board to be formed; g) removing the stack from the holding station once the layers have had sufficient time to bond to each other.
A variable speed wind turbine comprising: a generator; a power converter for converting at least a portion of electrical power generated by the generator, the power converter comprising a generator-side converter, a grid-side converter and a DC (direct current) link therebetween; a power dissipating unit operatively coupled to the DC-link; and a controller, wherein the controller is adapted to: receive a request to reduce power output from the wind turbine; determine a feed forward power signal (P FF) from the difference between a reference generator power (P generator) and a desired turbine power (P grid), the reference generator power (P generator) including a ramp down power profile of the generator, and the desired turbine power (P grid) including a desired ramp down power profile; and operate the power dissipating unit based on the feed forward power signal (P FF) such that the power output from the wind turbine is decreased at a desired rate. a generator; a power converter for converting at least a portion of electrical power generated by the generator, the power converter comprising a generator-side converter, a grid-side converter and a DC (direct current) link therebetween; a power dissipating unit operatively coupled to the DC-link; and a controller, wherein the controller is adapted to: receive a request to reduce power output from the wind turbine; determine a feed forward power signal (P FF) from the difference between a reference generator power (P generator) and a desired turbine power (P grid), the reference generator power (P generator) including a ramp down power profile of the generator, and the desired turbine power (P grid) including a desired ramp down power profile; and operate the power dissipating unit based on the feed forward power signal (P FF) such that the power output from the wind turbine is decreased at a desired rate. receive a request to reduce power output from the wind turbine; determine a feed forward power signal (P FF) from the difference between a reference generator power (P generator) and a desired turbine power (P grid), the reference generator power (P generator) including a ramp down power profile of the generator, and the desired turbine power (P grid) including a desired ramp down power profile; and operate the power dissipating unit based on the feed forward power signal (P FF) such that the power output from the wind turbine is decreased at a desired rate.
A method of determining the resource efficiency of a plant for the production of drinks containers, wherein the plant has at least one resource-consuming part, wherein the part of the plant is operated at least for a time in a first operative state in which a product is produced and the part of the plant has a first resource consumption in this operative state, and wherein the part of the plant is operated at least for a time in a second operative state and has a second resource consumption in this second operative state, wherein at least one first resource consumption capable of being allocated to the first operative state and at least one second resource consumption capable of being allocated to the second operative state are determined and the resource consumption (V1, V2) is allocated to the operative states (B1, B2), wherein at least one value characteristic of at least one resource consumption is stored in a memory device, wherein a value characteristic of the resource efficiency of the part of the plant is determined while taking into consideration the first resource consumption and the second resource consumption, wherein the resource consumption (V1, V2) differs in the various operative states, wherein the operative states are selected from a group of operative states which have an operating time of the plant, a production time, which is formed from the working time minus a planned stoppage time, an overall time, which in turn is formed from the production time minus possible external malfunctions and an actual operating time, in which production actually takes place, which is formed from the production time as mentioned above minus actual internal malfunctions of the plant, wherein the resource is selected from a plurality of resources which include energy, in particular electrical energy, heat, media for the treatment of the containers, compressed air, operating costs, personnel costs and the like, and further wherein the plant has a detection device which determines the resource consumption of the part of the plant, and further wherein the detection device supplies information relating to its operative and production states in the form of signals, by emitting an identification signal, which characterizes the part of the plant in question, wherein the detection device is a measurement sensor or the like, which determines the consumption of a medium or even an energy parameter, wherein beside to electrical energy also any liquid, gaseous or solid substances which occur as consumption during the observation can be detected, wherein the signals which represent the information with respect to the operative or production states are produced by a control means.
A vaccine formulation comprising a pharmaceutically acceptable carrier and - a first polypeptide having an amino acid sequence comprising SEQ ID NO: 9 or 10 or a homologous polypeptide thereof having an amino acid sequence at least 95% identical to SEQ ID NO: 9 or 10 and - a second polypeptide having an amino acid sequence comprising SEQ ID NO: 6 or 7 or a homologous polypeptide thereof having an amino acid sequence at least 95% identical to SEQ ID NO: 6 or 7. - a first polypeptide having an amino acid sequence comprising SEQ ID NO: 9 or 10 or a homologous polypeptide thereof having an amino acid sequence at least 95% identical to SEQ ID NO: 9 or 10 and - a second polypeptide having an amino acid sequence comprising SEQ ID NO: 6 or 7 or a homologous polypeptide thereof having an amino acid sequence at least 95% identical to SEQ ID NO: 6 or 7.
Transformer (10, 30, 60), comprising • a transformer core with at least three core limbs which are arranged in parallel with respect to one another and perpendicular to the corner points of a basic area spanned by a polygon, the respective two axial end regions of which core limbs transition on both sides into a respective yoke segment (12, 14, 16, 64) arranged transversely with respect thereto, • in each case a main winding (22, 32, 34, 38, 40, 44, 46, 66, 68, 62) arranged around a respective core limb in a hollow-cylindrical winding region, • wherein the magnetic cross section of a respective core limb is greater than the magnetic cross section of a respective yoke segment (12, 14, 16, 64), characterized by • in each case an additional winding (24, 36, 42, 48, 70, 84) which is electrically connected to a respective main winding (22, 32, 34, 38, 40, 44, 46, 66, 68, 62) and which is arranged around a respectively assigned yoke segment (12, 14, 16, 64). • a transformer core with at least three core limbs which are arranged in parallel with respect to one another and perpendicular to the corner points of a basic area spanned by a polygon, the respective two axial end regions of which core limbs transition on both sides into a respective yoke segment (12, 14, 16, 64) arranged transversely with respect thereto, • in each case a main winding (22, 32, 34, 38, 40, 44, 46, 66, 68, 62) arranged around a respective core limb in a hollow-cylindrical winding region, • wherein the magnetic cross section of a respective core limb is greater than the magnetic cross section of a respective yoke segment (12, 14, 16, 64), • in each case an additional winding (24, 36, 42, 48, 70, 84) which is electrically connected to a respective main winding (22, 32, 34, 38, 40, 44, 46, 66, 68, 62) and which is arranged around a respectively assigned yoke segment (12, 14, 16, 64).
Air filter element for insertion into an air filter housing, wherein the air filter element features: an inflow surface, an outflow surface, a filter medium, a filter element holding apparatus, wherein the filter medium extends between the inflow surface and the outflow surface in an axial direction of the air filter element, wherein the filter element holding apparatus is connected to the filter medium, wherein the filter filter element holding apparatus features a holding arrangement projecting radially from the filter medium and a seal arrangement having a sealing compound with a circumferential sealing line applied to the holding arrangement, wherein the filter medium features between the inflow surface and the outflow surface respectively two opposite large filter medium lateral faces and two opposite narrow filter medium lateral faces, wherein a narrow filter medium lateral face and a large filter medium lateral face respectively adjoin each other at an edge, - wherein the filter element holding apparatus features on the edges respectively a radial bulge which projects only beyond the narrow filter medium lateral faces or only beyond the large filter medium lateral faces and - wherein the sealing line surrounding the filter medium extends along the radial bulges and has a large radius there in comparison with an edge radius of the filter element. - wherein the filter element holding apparatus features on the edges respectively a radial bulge which projects only beyond the narrow filter medium lateral faces or only beyond the large filter medium lateral faces and - wherein the sealing line surrounding the filter medium extends along the radial bulges and has a large radius there in comparison with an edge radius of the filter element.
A Physics Package for an Oscillator, comprising: first and second permanent magnets (110a, 110b) arranged to form a space between each other and adapted to generate a static magnetic field inside the space in a direction from the first permanent magnet to the second permanent magnet; a Nuclear Magnetic Resonance, NMR, sample arranged inside the space; first and second radio frequency, RF, coils (130a, 130b), wherein the first RF coil is adapted to introduce an RF pulse into the space resulting in a precession of atomic cores of the NMR sample, and wherein the second RF coil is adapted to measure the precession of the atomic cores of the NRM sample, characterised in that the first and second radio frequency, RF, coils (130a, 130b) are arranged at different sides of the space in an angle of 90° to each other. first and second permanent magnets (110a, 110b) arranged to form a space between each other and adapted to generate a static magnetic field inside the space in a direction from the first permanent magnet to the second permanent magnet; a Nuclear Magnetic Resonance, NMR, sample arranged inside the space; first and second radio frequency, RF, coils (130a, 130b), wherein the first RF coil is adapted to introduce an RF pulse into the space resulting in a precession of atomic cores of the NMR sample, and wherein the second RF coil is adapted to measure the precession of the atomic cores of the NRM sample, characterised in that the first and second radio frequency, RF, coils (130a, 130b) are arranged at different sides of the space in an angle of 90° to each other.
Method for selecting network connection hubs for a given set of M ≥ 1 communication paths for use by a communication device, each respective interface of said communicating device being connected to a respective path, said method comprising a step of: a) identifying a set (P 1, P 2,..., P N) of N ≥ 2 hubs located in at least one network to which the communicating device is connected, each hub allowing the aggregation of connections using a plurality of paths that can be used by the communicating device, said selection method being characterized in that it further comprises the following steps: b) obtaining the value of at least one Quality of Service parameter QoS(i,j), for at least one path i, where i = 1,..., M, and for hubs P j that can be reached from the communicating device via said path i, and c) selecting at least one hub of said set on the basis of said Quality of Service values obtained. a) identifying a set (P 1, P 2,..., P N) of N ≥ 2 hubs located in at least one network to which the communicating device is connected, each hub allowing the aggregation of connections using a plurality of paths that can be used by the communicating device, said selection method being characterized in that it further comprises the following steps: b) obtaining the value of at least one Quality of Service parameter QoS(i,j), for at least one path i, where i = 1,..., M, and for hubs P j that can be reached from the communicating device via said path i, and c) selecting at least one hub of said set on the basis of said Quality of Service values obtained.
A method comprising: configuring an internal structure of one random access slot through a broadcast channel, wherein the internal structure of the one random access slot comprises: a number of symbols occupied by random access of an uplink part in the one random access slot, and a number of random access channel, RACH, occasions for the uplink part in the one random access slot; characterised by transmitting a parameter indicating the internal structure of the one random access slot through the broadcast channel and an association between an index of a downlink synchronization signal block and the one random access slot in time domain. configuring an internal structure of one random access slot through a broadcast channel, wherein the internal structure of the one random access slot comprises: a number of symbols occupied by random access of an uplink part in the one random access slot, and a number of random access channel, RACH, occasions for the uplink part in the one random access slot; characterised by transmitting a parameter indicating the internal structure of the one random access slot through the broadcast channel and an association between an index of a downlink synchronization signal block and the one random access slot in time domain. a number of symbols occupied by random access of an uplink part in the one random access slot, and a number of random access channel, RACH, occasions for the uplink part in the one random access slot; characterised by transmitting a parameter indicating the internal structure of the one random access slot through the broadcast channel and an association between an index of a downlink synchronization signal block and the one random access slot in time domain.
A maintenance operation method of a wind turbine generator, including an induction generator driven by rotation of blades, a power output line for outputting power of the induction generator to a distribution system, and at least one phase advance capacitor parallel-connected to the power output line, characterized in that it comprises; a first step of releasing connection between the phase advanced capacitor and the power output line when a maintenance mode for placing the blades in a feathering state is selected; and a second step of returning the connection between the phase advanced capacitor and the power output line by a manual operation or an automatic operation, wherein the phase advance capacitor returned to the connection with the power output line performs a power factor improvement of reactor loads (53, 54) in the distribution system side through a linkage portion with the distribution system.