mhurhangee/ep-ind-claims huggingface dataset:
Device for delivering fuel comprising a suction jet pump, which is arranged in a reservoir pot and has a nozzle and a mixing duct provided downstream of the nozzle and extending in the direction of the longitudinal extent of the reservoir pot, which mixing duct has a section embodied as a diffuser, wherein at the outlet of the mixing duct a deflection means is arranged, against which the jet of the nozzle impinges when the mixing duct is unfilled and, in the process, is at least partially guided back into the mixing duct, wherein the deflection means has a depression, recess, receptacle or skirt, which has in each case an inlet facing the mixing duct, characterized in that an additional volume is formed at the outlet of the mixing duct by an offset widening of the mixing duct, into which offset widening the inlet of the deflection means extends.
A radio communication system comprising: a plurality of radio base station apparatuses (eNB, 20) and a user terminal that is configured to be able to perform coordinated multi-point, CoMP, transmission/reception with the plurality of radio base station apparatuses, characterized in that each radio base station apparatus is configured to, when CoMP transmission is applied, transmit CSI, Channel State Information, set information that is information of CSI sets each including at least one piece of CSI defined by a combination of a signal component and an interference component for a CoMP transmission point through higher layer signaling, and also to transmit, in downlink control information, CSI request information that indicates a CSI set in the CSI set information, and the user terminal is configured to feed back the CSI based on the CSI set information and the CSI request information. each radio base station apparatus is configured to, when CoMP transmission is applied, transmit CSI, Channel State Information, set information that is information of CSI sets each including at least one piece of CSI defined by a combination of a signal component and an interference component for a CoMP transmission point through higher layer signaling, and also to transmit, in downlink control information, CSI request information that indicates a CSI set in the CSI set information, and the user terminal is configured to feed back the CSI based on the CSI set information and the CSI request information.
A sensor adapted to detect a causative accommodative trigger, characterized in that the accommodative trigger is a change in expression of G-protein.
An influenza hemagglutinin polypeptide, protein or protein complex comprising an HA stalk domain comprising an amino acid sequence having at least 65 % sequence identity to amino acid residues 229 to 519 of SEQ ID NO: 1, wherein the amino acid sequence comprises a point mutation to tyrosine at one or more of amino acid positions 403, 406, 429, 432, 433, and 435, or an amino acid residue corresponding thereto by alignment to SEQ ID NO: 1.
Mixture comprising - at least one aminically crosslinkable rubber and - a crosslinking system consisting of at least one crosslinker and optionally at least one vulcanization accelerator, wherein the at least one crosslinker comprises polyethyleneimine, and wherein the total content of the vulcanization accelerators diphenylguanidine, di-ortho-tolyl-guanidine (DOTG) and 1-(ortho-tolyl)biguanide of the crosslinking system in the mixture is not more than 0.4 phr, preferably not more than 0.2 phr, particularly preferably not more than 0.1 phr and very particularly preferably not more than 0.01 phr. - at least one aminically crosslinkable rubber and - a crosslinking system consisting of at least one crosslinker and optionally at least one vulcanization accelerator, wherein the at least one crosslinker comprises polyethyleneimine, and wherein the total content of the vulcanization accelerators diphenylguanidine, di-ortho-tolyl-guanidine (DOTG) and 1-(ortho-tolyl)biguanide of the crosslinking system in the mixture is not more than 0.4 phr, preferably not more than 0.2 phr, particularly preferably not more than 0.1 phr and very particularly preferably not more than 0.01 phr.
A system for detecting and analyzing changes in a body, comprising: an electric field generator configured to produce an electric field; an external sensor device, coupled to the electric field generator, configured to detect physical changes in the electric field, wherein the physical changes affect amplitude and frequency of the electric field; a quadrature demodulator, coupled to the electric field generator, configured to detect changes of the frequency of the output of the electric field generator and produce a detected response that includes a low frequency component and a high frequency component; a low pass filter, coupled to the quadrature demodulator, configured to filter out the high frequency component of the detected response to generate a filtered response; an amplitude reference source configured to provide an amplitude reference; an amplitude comparison switch, coupled to the amplitude reference source and the electric field generator, configured to compare the amplitude reference and the amplitude of the electric field to generate an amplitude comparison response; and a signal processor, coupled to the low pass filter and the amplitude comparison switch, configured to analyze the filtered response and the amplitude comparison response. an electric field generator configured to produce an electric field; an external sensor device, coupled to the electric field generator, configured to detect physical changes in the electric field, wherein the physical changes affect amplitude and frequency of the electric field; a quadrature demodulator, coupled to the electric field generator, configured to detect changes of the frequency of the output of the electric field generator and produce a detected response that includes a low frequency component and a high frequency component; a low pass filter, coupled to the quadrature demodulator, configured to filter out the high frequency component of the detected response to generate a filtered response; an amplitude reference source configured to provide an amplitude reference; an amplitude comparison switch, coupled to the amplitude reference source and the electric field generator, configured to compare the amplitude reference and the amplitude of the electric field to generate an amplitude comparison response; and a signal processor, coupled to the low pass filter and the amplitude comparison switch, configured to analyze the filtered response and the amplitude comparison response.
An optical device comprising: a first optical fibre portion having a plurality of first sensing regions that are separated by further regions; a first Bragg grating (130, 134, 138)incorporated in each first sensing region; a second optical fibre portion having a plurality of second sensing regions that are separated by further regions; a second Bragg grating (132, 136, 140) incorporated in each second sensing region; at least one member to.which the first and second optical fibre portions (120, 122) are attached at the first and second sensing regions; and moveable wall portions coupled to respective first Bragg gratings (130, 134, 138) so that a movement of the moveable wall portions causes a force that effects a change in strain of the respective first Bragg gratings (130, 134, 138) and thereby effects a change in an optical period of the respective first Bragg gratings (130, 134, 138) whereby the optical device is arranged for pressure sensing; characterised in that respective first and second sensing regions are positioned at opposite sides of an area defined between the first and second sensing regions and wherein at adjacent further regions the first and second optical fibre portions are spaced apart from each other by a distance that is smaller than that at the respective first and second sensing regions. a first optical fibre portion having a plurality of first sensing regions that are separated by further regions; a first Bragg grating (130, 134, 138)incorporated in each first sensing region; a second optical fibre portion having a plurality of second sensing regions that are separated by further regions; a second Bragg grating (132, 136, 140) incorporated in each second sensing region; at least one member to.which the first and second optical fibre portions (120, 122) are attached at the first and second sensing regions; and moveable wall portions coupled to respective first Bragg gratings (130, 134, 138) so that a movement of the moveable wall portions causes a force that effects a change in strain of the respective first Bragg gratings (130, 134, 138) and thereby effects a change in an optical period of the respective first Bragg gratings (130, 134, 138) whereby the optical device is arranged for pressure sensing; characterised in that respective first and second sensing regions are positioned at opposite sides of an area defined between the first and second sensing regions and wherein at adjacent further regions the first and second optical fibre portions are spaced apart from each other by a distance that is smaller than that at the respective first and second sensing regions.
A refrigerant charging method of recovering a refrigerant and charging the refrigerant to a second heat source unit, the refrigerant being included in a first heat source unit of an already installed refrigeration cycle apparatus in which a refrigeration cycle is to be performed by the refrigerant that circulates, characterized by comprising the following method steps: in a state, in which the circulating refrigerant of the refrigeration cycle apparatus has been transferred to the first heat source unit through pump down operation, a step of detaching the first heat source unit from the refrigeration cycle apparatus; after the first heat source unit is detached from the refrigeration cycle apparatus, a step of incorporating the second heat source unit in the refrigeration cycle apparatus; then, a step (a) of transferring the refrigerant from the first heat source unit to the second heat source unit; a step (b) of measuring a weight of the refrigerant that is transferred from the first heat source unit to the second heat source unit; and a step of adding additional refrigerant, if only with the refrigerant that is transferred from the first heat source unit to the second heat source unit, the circulating refrigerant is lacking for the refrigeration cycle apparatus in which the second heat source unit is incorporated. in a state, in which the circulating refrigerant of the refrigeration cycle apparatus has been transferred to the first heat source unit through pump down operation, a step of detaching the first heat source unit from the refrigeration cycle apparatus; after the first heat source unit is detached from the refrigeration cycle apparatus, a step of incorporating the second heat source unit in the refrigeration cycle apparatus; then, a step (a) of transferring the refrigerant from the first heat source unit to the second heat source unit; a step (b) of measuring a weight of the refrigerant that is transferred from the first heat source unit to the second heat source unit; and a step of adding additional refrigerant, if only with the refrigerant that is transferred from the first heat source unit to the second heat source unit, the circulating refrigerant is lacking for the refrigeration cycle apparatus in which the second heat source unit is incorporated.
A fuel cell system with an idle stop function in which electric power generation by a fuel cell (1, 10) can be stopped temporarily, the fuel cell system comprising: a cathode pressure control unit configured to control a pressure of a cathode gas to be supplied to the fuel cell (1, 10) on the basis of a load of the fuel cell (1, 10); and an anode pressure control unit configured to control a pressure of an anode gas to be supplied to the fuel cell (1, 10) to become higher than the pressure of the cathode gas so that a differential pressure between the pressure of the anode gas and the pressure of the cathode gas becomes a predetermined differential pressure or lower, characterized in that the anode pressure control unit is configured to control, at a time of recovery from idle stop, the pressure of the anode gas to be supplied to the fuel cell (1, 10) to a recovery-time pressure, the recovery-time pressure being obtained by adding the predetermined differential pressure to a predetermined pressure corresponding to an atmosphere pressure. a cathode pressure control unit configured to control a pressure of a cathode gas to be supplied to the fuel cell (1, 10) on the basis of a load of the fuel cell (1, 10); and an anode pressure control unit configured to control a pressure of an anode gas to be supplied to the fuel cell (1, 10) to become higher than the pressure of the cathode gas so that a differential pressure between the pressure of the anode gas and the pressure of the cathode gas becomes a predetermined differential pressure or lower, characterized in that the anode pressure control unit is configured to control, at a time of recovery from idle stop, the pressure of the anode gas to be supplied to the fuel cell (1, 10) to a recovery-time pressure, the recovery-time pressure being obtained by adding the predetermined differential pressure to a predetermined pressure corresponding to an atmosphere pressure.
A plug for blocking a drill hole, the plug comprising: an elongate body of solid impervious material; an engineered surface provided on an external circumference of the elongate body, the engineered surface comprising an annular anchoring groove having a ramp extending from a maximum diameter to a minimum diameter of the engineered surface in a braking direction in which it is intended to prevent movement of the plug in the drill hole; and, an O-ring received in the anchoring groove of the engineered surface and having a thickness whereby it protrudes above the maximum diameter of the engineered surface and engages with a wall of the drill hole wherein, in use, when the plug is moved in the braking direction in the drill hole the O-ring rolls up the ramp and wedges between the engineered surface and the wall of the drill hole to provide a braking action for the plug against the wall of the drill hole. an elongate body of solid impervious material; an engineered surface provided on an external circumference of the elongate body, the engineered surface comprising an annular anchoring groove having a ramp extending from a maximum diameter to a minimum diameter of the engineered surface in a braking direction in which it is intended to prevent movement of the plug in the drill hole; and, an O-ring received in the anchoring groove of the engineered surface and having a thickness whereby it protrudes above the maximum diameter of the engineered surface and engages with a wall of the drill hole wherein, in use, when the plug is moved in the braking direction in the drill hole the O-ring rolls up the ramp and wedges between the engineered surface and the wall of the drill hole to provide a braking action for the plug against the wall of the drill hole.
Control method for controlling a dehumidifier wheel, comprising sanitizing said dehumidifier wheel before restarting said dehumidifier wheel after a shutdown, characterized in that said sanitizing is performed automatically if a humidity value of the external environment is detected that is greater than a set value.
A method of operating a network on a plurality of frequency hopping channels, the method comprising: transmitting a beacon on a beacon channel different from the frequency hopping channels; receiving a request from a node to join the network in response to the beacon; adding the node to the network in response to the step of receiving; and communicating with the node on the plurality of frequency hopping channels after the step of adding, wherein the beacon channel has a different bandwidth from each of the frequency hopping channels. transmitting a beacon on a beacon channel different from the frequency hopping channels; receiving a request from a node to join the network in response to the beacon; adding the node to the network in response to the step of receiving; and communicating with the node on the plurality of frequency hopping channels after the step of adding, wherein the beacon channel has a different bandwidth from each of the frequency hopping channels.
A child resistant slider zipper closure system comprising: (a) a zipper closure selectively closable and openable; (b) a slider operably mounted on the zipper closure to open and close the zipper closure; characterised by (c) a non-removable hood covering the slider when the zipper closure is closed and covering the zipper closure at an opening initiation point of the zipper closure, the non-removable hood extending only partially along the zipper closure from the opening initiation point, the slider being movable from under the non-removable hood to slide along the zipper closure; wherein the non-removable hood is non-transparent. (a) a zipper closure selectively closable and openable; (b) a slider operably mounted on the zipper closure to open and close the zipper closure; characterised by (c) a non-removable hood covering the slider when the zipper closure is closed and covering the zipper closure at an opening initiation point of the zipper closure, the non-removable hood extending only partially along the zipper closure from the opening initiation point, the slider being movable from under the non-removable hood to slide along the zipper closure; wherein the non-removable hood is non-transparent.
Pressing sleeve for a press fitting for producing a sealing, non-releasable pipe connection, - having a receiving section for receiving a main fitting body and having a pressing section, - wherein the inner diameter of the receiving section is adapted to the outer diameter of the main fitting body, and - wherein the inner diameter of the pressing section is at least in sections designed to be smaller than the outer diameter of the main fitting body, characterised in that - at least one retaining lug which can be clamped resiliently elastically inwards in the radial direction is provided in the receiving section, and in that - the retaining lug has a free end section which, with the retaining lug in the undamped state, protrudes in the radial direction at least partially into the interior of the receiving section. - having a receiving section for receiving a main fitting body and having a pressing section, - wherein the inner diameter of the receiving section is adapted to the outer diameter of the main fitting body, and - wherein the inner diameter of the pressing section is at least in sections designed to be smaller than the outer diameter of the main fitting body, - at least one retaining lug which can be clamped resiliently elastically inwards in the radial direction is provided in the receiving section, and in that - the retaining lug has a free end section which, with the retaining lug in the undamped state, protrudes in the radial direction at least partially into the interior of the receiving section.
A compound represented by the formula (I-i): wherein R 1 is a hydrogen atom or an optionally substituted C 1-6 alkyl group, X 1 is CH or a nitrogen atom, ring A optionally has a substituent, X 2 is CR 2 or a nitrogen atom, X 3 is CR 3 or a nitrogen atom, X 4 is CR 4 or a nitrogen atom, X 5 is CR 5 or a nitrogen atom, R 2, R 3, R 4 and R 5 are each independently a hydrogen atom or a substituent, ring B is an optionally substituted 5- or 6-membered nitrogen-containing heterocycle (said nitrogen-containing heterocycle optionally further forms a fused ring with a ring other than ring C 1), Z 5 is =N- or -N=, ring C 1 is an optionally substituted 5-membered ring, Z 1, Z 3 ' and Z 4 ' are each independently a ring C 1 -constituting atom selected from a carbon atom and a nitrogen atom, ring D is an optionally substituted 5- or 6-membered ring, and - - - - - - is a single bond or a double bond, or a salt thereof. R 1 is a hydrogen atom or an optionally substituted C 1-6 alkyl group, X 1 is CH or a nitrogen atom, ring A optionally has a substituent, X 2 is CR 2 or a nitrogen atom, X 3 is CR 3 or a nitrogen atom, X 4 is CR 4 or a nitrogen atom, X 5 is CR 5 or a nitrogen atom, R 2, R 3, R 4 and R 5 are each independently a hydrogen atom or a substituent, ring B is an optionally substituted 5- or 6-membered nitrogen-containing heterocycle (said nitrogen-containing heterocycle optionally further forms a fused ring with a ring other than ring C 1), Z 5 is =N- or -N=, ring C 1 is an optionally substituted 5-membered ring, Z 1, Z 3 ' and Z 4 ' are each independently a ring C 1 -constituting atom selected from a carbon atom and a nitrogen atom, ring D is an optionally substituted 5- or 6-membered ring, and - - - - - - is a single bond or a double bond, or a salt thereof.
Fluid distribution control system having at least two temperature control circuits, wherein a pressure regulating unit providing a constant pressure difference over the circuits is disposed in each circuit, characterized in that the pressure regulating units (18, 19, 20) are set to the same pressure difference.
A process for recovering a protein-containing material, comprising: (i) forming an aqueous mixture of an organic material and a protein-containing fermentation agent capable of fermenting the organic material to produce ethanol; (ii) fermenting the aqueous mixture to produce ethanol; (iii) recovering from the fermented aqueous mixture an ethanol stream which is rich in ethanol and a co-product stream comprising unfermented organic material, fermentation agent and an aqueous solution of dissolved solids in water; (iv) subjecting the co-product stream to a first separation stage to recover a first stream rich in the unfermented organic material and a second stream rich in the fermentation agent suspended in the aqueous solution; and (v) subjecting the second stream to a second separation stage which comprises a centrifugal separation step, capable of recovering suspended solids from a liquid, to recover a third stream rich in the fermentation agent including soluble non-starch polysaccharides and a fourth stream rich in the aqueous solution; and formulating the recovered fermentation agent as a protein source in a feed material for use in an animal feed composition. (i) forming an aqueous mixture of an organic material and a protein-containing fermentation agent capable of fermenting the organic material to produce ethanol; (ii) fermenting the aqueous mixture to produce ethanol; (iii) recovering from the fermented aqueous mixture an ethanol stream which is rich in ethanol and a co-product stream comprising unfermented organic material, fermentation agent and an aqueous solution of dissolved solids in water; (iv) subjecting the co-product stream to a first separation stage to recover a first stream rich in the unfermented organic material and a second stream rich in the fermentation agent suspended in the aqueous solution; and (v) subjecting the second stream to a second separation stage which comprises a centrifugal separation step, capable of recovering suspended solids from a liquid, to recover a third stream rich in the fermentation agent including soluble non-starch polysaccharides and a fourth stream rich in the aqueous solution; and formulating the recovered fermentation agent as a protein source in a feed material for use in an animal feed composition.
A method of reducing the trailing edge noise of a wind turbine blade having a blunt trailing edge, the wind turbine blade having a trailing edge solid angle ψ1 at said blunt trailing edge, taken as a projection from a pressure and suction sides of the wind turbine blade, the method being characterised by comprising the steps of: increasing the trailing edge solid angle of the blunt trailing edge to reduce the strength of vortex shedding formed behind the blunt trailing edge of the wind turbine blade.