mhurhangee/ep-ind-claims huggingface dataset:
Use of a fragrance composition comprising a fragrance compound and a solvent or carrier, in an air care device, the air care device being a wicking device, an electrical liquid air freshener device or an aerosol device, wherein at least one compound of formula I below wherein R 1 and R 2, independently from one another, are selected in the group consisting of: methyl, ethyl, isopropyl, n-propyl, isobutyl, n-butyl, tert-butyl, n-pentyl, cyclopentyl, cyclohexyl or phenyl., R 3 is H, a -C(=O)R 4 group, with R 4 being methyl, ethyl, isopropyl, n-propyl, isobutyl, n-butyl or tert-butyl, is present in an amount of at least 10% by weight based on the total weight of solvent and carrier of the composition, and wherein the composition comprises one or more other components selected among water, surfactants, colorants and potentiators, in an amount not exceeding 40% by weight based on the total weight of the composition. R 1 and R 2, independently from one another, are selected in the group consisting of: methyl, ethyl, isopropyl, n-propyl, isobutyl, n-butyl, tert-butyl, n-pentyl, cyclopentyl, cyclohexyl or phenyl., R 3 is H, a -C(=O)R 4 group, with R 4 being methyl, ethyl, isopropyl, n-propyl, isobutyl, n-butyl or tert-butyl, is present in an amount of at least 10% by weight based on the total weight of solvent and carrier of the composition, and wherein the composition comprises one or more other components selected among water, surfactants, colorants and potentiators, in an amount not exceeding 40% by weight based on the total weight of the composition.
A flowing electrolyte reservoir system for a flowing electrolyte battery comprising: a battery cell stack comprising a negative electrolyte input port and a negative electrolyte output port; an outer tank positioned beneath the battery cell stack; and an inner tank positioned inside the outer tank and beneath the battery cell stack; wherein the negative electrolyte input port and the negative electrolyte output port of the battery cell stack are positioned directly above the outer tank and are not positioned directly above the inner tank. a battery cell stack comprising a negative electrolyte input port and a negative electrolyte output port; an outer tank positioned beneath the battery cell stack; and an inner tank positioned inside the outer tank and beneath the battery cell stack; wherein the negative electrolyte input port and the negative electrolyte output port of the battery cell stack are positioned directly above the outer tank and are not positioned directly above the inner tank.
Assembly comprising a windscreen wiper drive rod (18, 19) and a casing (20', 20", 21'), in particular of a motor vehicle, said drive rod being generally elongate in form and comprising a first longitudinal end, configured to be linked to an output shaft of a motor, and a second longitudinal end, configured to be linked to one end of a drive arm of a blade of the windscreen wiper, said second longitudinal end carrying a pivot pin of said arm, whereby said casing is configured to cover at least a portion of said drive rod, the assembly being characterized in that said casing comprises means (54, 56, 58, 60, 62) for detachable fixing to said drive rod and to said pivot pin linked to said drive rod, and support and guiding means (70, 70', 70", 70"') which are configured to cooperate with at least one electric cable and/or at least one fluid line of said windscreen wiper, and in that said casing (20', 20", 21') comprises first means (54, 56, 58) for fixing to said pin by engagement and second means (60, 62) for fixing to said drive rod (18, 19) by resilient detent.
A power transmission device comprising: a rotary input member adapted to receive drive torque from a power source; a rotary output member adapted to provide drive torque to an output device; a torque transfer mechanism operable for transferring drive torque from said input member to said output member, said torque transfer mechanism including a friction clutch assembly (90; 90') operably disposed between said input member and said output member and a clutch actuator for applying a clutch engagement force to said friction clutch assembly (90; 90'); and a control system that controls actuation of said clutch actuator so as to maintain a desired torque split, wherein said control system calculates a total torque available for distribution, calculates a desired torque to distribute to said output member (TCDT) based on said total torque available for distribution (TCIP) and said desired torque split, and positions said clutch actuator to transfer said desired torque (TCDT) through said friction clutch assembly (90; 90'), characterized in that torque transmission characteristics of the friction clutch assembly (90; 90') are correlated to a position of a pressure plate of the clutch actuator in a look-up table with a first column providing a predetermined number of value ranges for the desired torque (TCDT) to be generated by engagement of the friction clutch assembly (90; 90') and with a second column providing for each of these ranges, a corresponding clutch actuator position, wherein each clutch actuator position value is an integer that is indicative of an incremental change in the position of the pressure plate of the clutch actuator; and the control system is configured to determine a clutch actuator position that corresponds to the calculated transfer case desired torque (TCDT) value using said look-up table, and to position the pressure plate of the clutch actuator in accordance with the determined clutch actuator position. a rotary input member adapted to receive drive torque from a power source; a rotary output member adapted to provide drive torque to an output device; a torque transfer mechanism operable for transferring drive torque from said input member to said output member, said torque transfer mechanism including a friction clutch assembly (90; 90') operably disposed between said input member and said output member and a clutch actuator for applying a clutch engagement force to said friction clutch assembly (90; 90'); and a control system that controls actuation of said clutch actuator so as to maintain a desired torque split, wherein said control system calculates a total torque available for distribution, calculates a desired torque to distribute to said output member (TCDT) based on said total torque available for distribution (TCIP) and said desired torque split, and positions said clutch actuator to transfer said desired torque (TCDT) through said friction clutch assembly (90; 90'),
A fusing fabric used for thermal fusion of a plurality of plies of fabric, the fusing fabric comprising at least partially fusible fibers comprised of a resin that has a melting point of 150°C or lower, measured according to JIS K7121 with the differential scanning calorimeter (DSC-60) made from Shimadzu Corporation at the temperature increase rate of 10 degree-C / min, and wherein indium and lead were used for temperature calibration, and wherein the melting peak temperature (Tpm) referred to in the above JIS was determined from the 2nd run chart, and this TPm was taken as the melting point, and having an air permeability of 1000 cm 3 /cm 2 ·s or more to 10000 cm 3 /cm 2 ·s or less, measured using a KES-F8-AP1 air permeability tester manufactured by Katotec Co., and the value of the air permeability being calculated by the formula V = 124.55 / (R × 10), wherein the fusible fibers are modified ethylene vinyl alcohol copolymer fibers or modified polyamide fibers.
A cell balancing module comprising: a main board on which a plurality of first cell balancing resistors are mounted; at least one sub-board on which a plurality of second cell balancing resistors are mounted and which is mounted above the main board while being spaced a predetermined distance apart therefrom; and at least one connector supporting the sub-board to be spaced apart from the main board and electrically connecting the sub-board to the main board, characterized in that the plurality of first cell balancing resistors mounted on the main board and the plurality of second cell balancing resistors mounted on the sub-board are alternately disposed so that positions are not overlapped with each other. a main board on which a plurality of first cell balancing resistors are mounted; at least one sub-board on which a plurality of second cell balancing resistors are mounted and which is mounted above the main board while being spaced a predetermined distance apart therefrom; and at least one connector supporting the sub-board to be spaced apart from the main board and electrically connecting the sub-board to the main board, characterized in that the plurality of first cell balancing resistors mounted on the main board and the plurality of second cell balancing resistors mounted on the sub-board are alternately disposed so that positions are not overlapped with each other.
A method in a positioning node (13, 14) for handling information related to uplink transmissions from a wireless device in a wireless communications network, characterized by: - obtaining information related to a non-contiguous transmission configuration currently used by the wireless device; and - taking the obtained information into account when selecting a positioning method, whereby said selecting requires only downlink, DL, positioning measurements when the wireless device is configured with multi-cluster transmission. - obtaining information related to a non-contiguous transmission configuration currently used by the wireless device; and - taking the obtained information into account when selecting a positioning method, whereby said selecting requires only downlink, DL, positioning measurements when the wireless device is configured with multi-cluster transmission.
A system adapted to deliver diagnostic or therapeutic procedures to a target tissue comprising: a medical insertion device for performing said therapeutic procedure/s and having a tip (180, 380) and tip axis, said tip having a circumference and being adapted for being put in contact with tissue region; said tip of said medical insertion device comprising a self-directing acoustic transducer assembly, the self-directing acoustic transducer assembly comprising, a circumferential or circular switch array comprising plurality of switches, each switch comprising a first and second mechanical electrical contact adapted to come into electrical communication by closing a gap (142; 342; 142b; 142a), either said gap being filled adjacent and laterally between said contacts with an elastomer of predetermined stiffness and thickness or one or both of said contacts being provided with some elastic foundation or elastic mounting, a plurality of directional acoustic transducer elements circumferentially distributed around the switch array for providing a 360 degree field of view and; wherein the circumferential or circular switch array is in communication with the plurality of directional acoustic transducer elements and configured to activate a number of the plurality of directional acoustic transducer elements in response to a load on the medical insertion device, the said number of directional acoustic transducer elements activated being aimed towards the tissue causing the load and corresponding to the load on the medical insertion device. a medical insertion device for performing said therapeutic procedure/s and having a tip (180, 380) and tip axis, said tip having a circumference and being adapted for being put in contact with tissue region; said tip of said medical insertion device comprising a self-directing acoustic transducer assembly, the self-directing acoustic transducer assembly comprising, a circumferential or circular switch array comprising plurality of switches, each switch comprising a first and second mechanical electrical contact adapted to come into electrical communication by closing a gap (142; 342; 142b; 142a), either said gap being filled adjacent and laterally between said contacts with an elastomer of predetermined stiffness and thickness or one or both of said contacts being provided with some elastic foundation or elastic mounting, a plurality of directional acoustic transducer elements circumferentially distributed around the switch array for providing a 360 degree field of view and; wherein the circumferential or circular switch array is in communication with the plurality of directional acoustic transducer elements and configured to activate a number of the plurality of directional acoustic transducer elements in response to a load on the medical insertion device, the said number of directional acoustic transducer elements activated being aimed towards the tissue causing the load and corresponding to the load on the medical insertion device.
A method of preparing organohalosilanes, the method comprising: (i) contacting a first finely-divided silicon comprising from 0.08 to 0.25% (w/w) of aluminum with an organohalide in a reactor at a temperature of from 250 to 350 °C in the presence of a Direct Process catalyst comprising copper, and a promotor; and (ii) introducing a second finely-divided silicon comprising from 0.001 to < 0.10 % (w/w) of aluminum into the reactor as needed in an amount sufficient to maintain an aluminum concentration from 0.08 to 0.2% (w/w), based on a total weight of unreacted silicon and aluminum. (i) contacting a first finely-divided silicon comprising from 0.08 to 0.25% (w/w) of aluminum with an organohalide in a reactor at a temperature of from 250 to 350 °C in the presence of a Direct Process catalyst comprising copper, and a promotor; and (ii) introducing a second finely-divided silicon comprising from 0.001 to < 0.10 % (w/w) of aluminum into the reactor as needed in an amount sufficient to maintain an aluminum concentration from 0.08 to 0.2% (w/w), based on a total weight of unreacted silicon and aluminum.
A reduced sensitivity ammunition comprising an explosive charge, the explosive charge including a blind cylindrical bore intended to receive at least one priming device, the ammunition further comprising a stiffening element in contact with the inner surface of the bore, characterized in that the stiffening element is a solid cylinder having a volume corresponding to the volume of the bore.
A method for preparing a core-shell structure composite carrier based on poly(vinyl alcohol) and alginate, comprising: providing a mixed solution for a core containing PVA, alginate and a second reactant; introducing the mixed solution for a core to a boric acid solution containing calcium chloride to form beads of a core region to which the second reactant is immobilized; immersing the beads of a core region into a boric acid solution containing calcium chloride to form a crosslinking agent on the beads of a core region; and introducing the beads of a core region having the crosslinking agent to a mixed solution for a shell to form beads of a shell region on the surface of the beads of a core region, wherein the mixed solution for a shell comprises PVA, alginate and a first reactant. providing a mixed solution for a core containing PVA, alginate and a second reactant; introducing the mixed solution for a core to a boric acid solution containing calcium chloride to form beads of a core region to which the second reactant is immobilized; immersing the beads of a core region into a boric acid solution containing calcium chloride to form a crosslinking agent on the beads of a core region; and introducing the beads of a core region having the crosslinking agent to a mixed solution for a shell to form beads of a shell region on the surface of the beads of a core region, wherein the mixed solution for a shell comprises PVA, alginate and a first reactant.
A machine comprising: an elongate frame; a rail supported on the frame having opposed first and second ends; a carriage supported on the frame and moveable along the rail between the first and second ends; a slide cartridge mounted on the carriage and configured to guide the carriage along the rail, the slide cartridge comprising: a base member, a channel having a pair of opposed walls (104a, 104b) that extend from the base member configured to engage the rail; a rotary drive (20, 206, 208) supported on the carriage; and a drill string having opposed first and second ends, the first end being operatively connected to the rotary drive (20, 206, 208); characterized in that a rib (128a, 128b, 140) is formed on an outer surface of each wall (104a, 104b) of the slide cartridge, the rib extending from the base member to a distal edge of the wall (104a, 104b), and the carriage has a mounting aperture configured to position the slide cartridge to engage the rail, the aperture having a notch (176a, 176b, 178) formed to receive the rib (128a, 128b, 140). an elongate frame; a rail supported on the frame having opposed first and second ends; a carriage supported on the frame and moveable along the rail between the first and second ends; a slide cartridge mounted on the carriage and configured to guide the carriage along the rail, the slide cartridge comprising: a base member, a channel having a pair of opposed walls (104a, 104b) that extend from the base member configured to engage the rail; a base member, a channel having a pair of opposed walls (104a, 104b) that extend from the base member configured to engage the rail; a rotary drive (20, 206, 208) supported on the carriage; and a drill string having opposed first and second ends, the first end being operatively connected to the rotary drive (20, 206, 208); characterized in that a rib (128a, 128b, 140) is formed on an outer surface of each wall (104a, 104b) of the slide cartridge, the rib extending from the base member to a distal edge of the wall (104a, 104b), and the carriage has a mounting aperture configured to position the slide cartridge to engage the rail, the aperture having a notch (176a, 176b, 178) formed to receive the rib (128a, 128b, 140).
An electrical power system, comprising: a power converter comprising: a line-side converter; a DC link; and a rotor-side converter comprising one or more switching elements, the rotor-side converter configured to convert a DC power on the DC link to an AC signal for a rotor bus; a control system comprising one or more control devices, the one or more control devices configured to operate the one or more switching elements in an overmodulation regime to provide the AC signal for the rotor bus, wherein operating the one or more switching elements in the overmodulation regime comprises comparing a modulating wave to a carrier wave, wherein a maximum amplitude of the modulating wave is greater than a maximum amplitude of the carrier wave, and wherein the control system is further configured to toggle the one or more switching elements whenever the carrier wave and the modulating wave intersect; a transformer electrically coupled to a power grid and the power converter; a doubly-fed induction generator comprising a stator electrically coupled to the transformer via a stator bus, and a rotor electrically coupled to the rotor side converter via the rotor bus; and an active filter electrically coupled to the transformer and configured to reduce at least one harmonic caused by operating the one or more switching elements in the overmodulation regime, and only activated when the at least one harmonic does not satisfy a threshold. a line-side converter; a DC link; and a rotor-side converter comprising one or more switching elements, the rotor-side converter configured to convert a DC power on the DC link to an AC signal for a rotor bus; a control system comprising one or more control devices, the one or more control devices configured to operate the one or more switching elements in an overmodulation regime to provide the AC signal for the rotor bus, wherein operating the one or more switching elements in the overmodulation regime comprises comparing a modulating wave to a carrier wave, wherein a maximum amplitude of the modulating wave is greater than a maximum amplitude of the carrier wave, and wherein the control system is further configured to toggle the one or more switching elements whenever the carrier wave and the modulating wave intersect; a transformer electrically coupled to a power grid and the power converter; a doubly-fed induction generator comprising a stator electrically coupled to the transformer via a stator bus, and a rotor electrically coupled to the rotor side converter via the rotor bus; and an active filter electrically coupled to the transformer and configured to reduce at least one harmonic caused by operating the one or more switching elements in the overmodulation regime, and only activated when the at least one harmonic does not satisfy a threshold.
A blade for a gas turbine engine comprising: an airfoil having: a root end and a tip; an aluminum-based metallic substrate along at least a portion of the airfoil; and an abrasive tip coating comprising an abrasive and an aluminum-based matrix; and a base layer between the abrasive tip coating and the metallic substrate, characterised in that the base layer is aluminium-based, the aluminium-based matrix and the aluminium-based base layer are softer than the metallic substrate, and the aluminium-based matrix is galvanically sacrificial to the aluminium-based base layer and the metallic substrate. an airfoil having: a root end and a tip; an aluminum-based metallic substrate along at least a portion of the airfoil; and an abrasive tip coating comprising an abrasive and an aluminum-based matrix; and a root end and a tip; an aluminum-based metallic substrate along at least a portion of the airfoil; and an abrasive tip coating comprising an abrasive and an aluminum-based matrix; and a base layer between the abrasive tip coating and the metallic substrate, characterised in that the base layer is aluminium-based, the aluminium-based matrix and the aluminium-based base layer are softer than the metallic substrate, and the aluminium-based matrix is galvanically sacrificial to the aluminium-based base layer and the metallic substrate. characterised in that the base layer is aluminium-based, the aluminium-based matrix and the aluminium-based base layer are softer than the metallic substrate, and the aluminium-based matrix is galvanically sacrificial to the aluminium-based base layer and the metallic substrate.