mhurhangee/ep-ind-claims huggingface dataset:
A heating circulation pump with a pump casing having a pump impeller which is arranged therein and which is driven by an electric motor whose stator is arranged in a motor housing connected to the pump casing, and with a terminal box which consists and is formed from at least two components of plastic and which is arranged on the motor housing and is for the electric connection of the motor winding and for receiving electrical and/or electronic components of the motor control, characterised in that the mentioned components of the terminal box consist of thermoplastic plastic and are connected to one another in a sealed and non-releasable manner with a material fit by way of welding, and that the terminal box is designed in a sealingly closed manner to the motor and to the surroundings.
A method for operating a wind farm, the method comprising: detecting a corrective action taken by an upwind wind generator, the upwind wind generator located upstream of a downwind wind generator relative to a wind flow direction, the corrective action comprising an adjustment to a characteristic of the upwind wind generator; communicating a control signal to the downwind wind generator, the control signal based on the corrective action; and beginning to adjust the downwind wind generator according to the control signal before the wind flow is experienced by the downwind wind generator; wherein the corrective action is one of a pitch adjustment, a pitch rate adjustment, a yaw adjustment, a yaw rate adjustment, or a generator torque adjustment. detecting a corrective action taken by an upwind wind generator, the upwind wind generator located upstream of a downwind wind generator relative to a wind flow direction, the corrective action comprising an adjustment to a characteristic of the upwind wind generator; communicating a control signal to the downwind wind generator, the control signal based on the corrective action; and beginning to adjust the downwind wind generator according to the control signal before the wind flow is experienced by the downwind wind generator; wherein the corrective action is one of a pitch adjustment, a pitch rate adjustment, a yaw adjustment, a yaw rate adjustment, or a generator torque adjustment.
A mechanical pencil having an elongate body which extends along a longitudinal axis, said elongate body comprises at least from upstream to downstream: - a housing designed to receive a cartridge of leads, - a coupling element configured, when it is in the engagement position, to enlarge an outlet opening of the lead with which is equipped a downstream end of the cartridge, and - a mechanism for feeding the lead, said elongate body of the mechanical pencil is decomposed into at least one first portion and one second portion, said first portion and second portion are configured to be linked to each other with a linking means, said coupling element is disposed in the first portion so that it is in the engagement position when the first portion and the second portion are linked to each other with the linking means, said lead coming out, by gravity, from the cartridge and passing through the coupling element to be brought up to the feed mechanism, characterized in that: • said mechanism for feeding the lead is completely dissociated from the cartridge of leads, • said coupling element is disposed in the first portion so that the cartridge remains static during the advance of the lead by the feed mechanism. - a housing designed to receive a cartridge of leads, - a coupling element configured, when it is in the engagement position, to enlarge an outlet opening of the lead with which is equipped a downstream end of the cartridge, and - a mechanism for feeding the lead, • said mechanism for feeding the lead is completely dissociated from the cartridge of leads, • said coupling element is disposed in the first portion so that the cartridge remains static during the advance of the lead by the feed mechanism.
A centrifugal compressor, comprising: an impeller; a compressor inlet tube configured to guide air to the impeller; a scroll flow passage disposed on a radially outer side of the impeller; a bypass flow passage branching from the scroll flow passage via a branch port, the bypass flow passage bypassing the impeller, the bypass flow passage connecting to the compressor inlet tube; and a bypass valve capable of opening and closing a valve port disposed in the bypass flow passage, wherein the valve port is an opening on a valve seat surface which is to be in direct contact with a valve body of the bypass valve, wherein the branch port has a non-circular shape when viewed along a normal N1 of the branch port passing through a center of the branch port, the non-circular shape being an oval shape or a rectangular shape or a slit shape or a rounded rectangular shape or an ellipse shape or a rounded rhombic shape, and wherein, when G is a flow-passage cross section including the center of the branch port in the scroll flow passage, T is a dimension of the branch port in a flow direction F orthogonal to the flow-passage cross section G, and L is a dimension of the branch port in a flow direction H orthogonal to each of the flow direction F and the normal N1, T is smaller than L; and wherein the branch port has a length larger than a diameter of the valve port, the branch port having a width smaller than the diameter of the valve port. an impeller; a compressor inlet tube configured to guide air to the impeller; a scroll flow passage disposed on a radially outer side of the impeller; a bypass flow passage branching from the scroll flow passage via a branch port, the bypass flow passage bypassing the impeller, the bypass flow passage connecting to the compressor inlet tube; and a bypass valve capable of opening and closing a valve port disposed in the bypass flow passage, wherein the valve port is an opening on a valve seat surface which is to be in direct contact with a valve body of the bypass valve, wherein the branch port has a non-circular shape when viewed along a normal N1 of the branch port passing through a center of the branch port, the non-circular shape being an oval shape or a rectangular shape or a slit shape or a rounded rectangular shape or an ellipse shape or a rounded rhombic shape, and wherein, when G is a flow-passage cross section including the center of the branch port in the scroll flow passage, T is a dimension of the branch port in a flow direction F orthogonal to the flow-passage cross section G, and L is a dimension of the branch port in a flow direction H orthogonal to each of the flow direction F and the normal N1, T is smaller than L; and wherein the branch port has a length larger than a diameter of the valve port, the branch port having a width smaller than the diameter of the valve port.
A fastener application device comprising: a shaft comprising a proximal portion and a distal portion; and a handle mounted at the proximal portion of the shaft with a trigger disposed at the handle, wherein a fastener carrier is disposed at least partially within the shaft and comprises a replaceable cartridge preloaded with a plurality of pre-formed fasteners, each fastener having at least one barbed strut; and each fastener is selected from long fasteners and short fasteners; a hammer member is disposed at least partially within the shaft and configured to travel a fixed distance along an axis of the shaft upon operation of the trigger and engage the fastener nearest the distal tip of the shaft, wherein when the hammer member engages a long fastener, a first proportion of the fixed distance is travelled within the shaft to deliver the long fastener to a first depth; and when the hammer member engages a short fastener, a second proportion of the fixed distance is travelled within the shaft to deliver the short fastener to a second depth, the first proportion being less than the second proportion and the first depth being greater than the second depth. a shaft comprising a proximal portion and a distal portion; and a handle mounted at the proximal portion of the shaft with a trigger disposed at the handle, wherein a fastener carrier is disposed at least partially within the shaft and comprises a replaceable cartridge preloaded with a plurality of pre-formed fasteners, each fastener having at least one barbed strut; and each fastener is selected from long fasteners and short fasteners; a hammer member is disposed at least partially within the shaft and configured to travel a fixed distance along an axis of the shaft upon operation of the trigger and engage the fastener nearest the distal tip of the shaft, wherein when the hammer member engages a long fastener, a first proportion of the fixed distance is travelled within the shaft to deliver the long fastener to a first depth; and when the hammer member engages a short fastener, a second proportion of the fixed distance is travelled within the shaft to deliver the short fastener to a second depth, the first proportion being less than the second proportion and the first depth being greater than the second depth.
A method of detecting a ligature on a door, the method comprising the steps: (i) providing a door mounted within a door frame on mounting means, load sensing means configured to determine the load applied by the door to the mounting means, a movement sensing means configured to determine whether the door is moving relative to the door frame, and processing means, (ii) determining whether the door is substantially stationary using the movement sensing means; (iii) when the door is determined to be substantially stationary, determining the load applied by the door a plurality of times to provide a plurality of load readings; (iv) averaging the plurality of load readings to produce an average load reading; (v) calculating a threshold value from the average load reading; (vi) determining the load applied by the door; and (vii) determining whether the load applied by the door in step (vi) is greater than the threshold value, wherein a load that is greater than the threshold value is indicative of a ligature on the door. (i) providing a door mounted within a door frame on mounting means, load sensing means configured to determine the load applied by the door to the mounting means, a movement sensing means configured to determine whether the door is moving relative to the door frame, and processing means, (ii) determining whether the door is substantially stationary using the movement sensing means; (iii) when the door is determined to be substantially stationary, determining the load applied by the door a plurality of times to provide a plurality of load readings; (iv) averaging the plurality of load readings to produce an average load reading; (v) calculating a threshold value from the average load reading; (vi) determining the load applied by the door; and (vii) determining whether the load applied by the door in step (vi) is greater than the threshold value,
A compound of the Formula their tautomeric forms, stereoisomer's, polymorphs, solvates, and pharmaceutically acceptable salts thereof; wherein; ---- is a single bond or a double bond; X is selected from -O- or -N-; n is 0-6; R 1 is selected from alkyl or cycloalkyl; R 2 and R 3 are independently selected from hydrogen, halogen, hydroxy, nitro, cyano, azido, nitroso, oxo (=O), thioxo (=S), -SO 2 -, amino, hydrazino, formyl, alkyl, haloalkyl, alkoxy, haloalkoxy; arylalkoxy; cycloalkyl, cycloalkyloxy, aryl, heterocyclyl, heteroaryl, alkylamino, -COOR a, -C R b, -C R a, -C NR a R b, -C NR a R b, -NR a C NR b R c, NR a C NR b R c, -N(R a)SOR b, -N(R a)SO 2 R b, -NR a C OR b, -NR a R b, -NR a C R b -, NR a C R b -, -SONR a R b -, -SO 2 NR a R b -, -OR a, -OR a C OR b -, -OC NR a R b, OC R a, - OC NR a R b -, -R a NR b R c, -R a OR b -,-SR a, -SOR a Or-SO 2 R a, wherein R a, R b and R c are independently selected from hydrogen, alkyl, cycloalkyl, aryl, arylalkyl, heterocyclyl, heteroaryl or hetroarylalkyl; R 4 is selected from hydrogen, alkyl, cycloalkyl, cyloalkenyl, cycloalkylalkyl, aryl, arylalkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, heteroarylalkyl or haloalkyl; Z is selected from hydrogen, -CH 2 OR 5,-COOR 5, -CONR 5 R 6, -NHCOOR 5, -NHCOR 5 or - NHSO 2 R 5; R 5 and R 6 are independently selected from hydrogen, hydroxyl, aryl, heteroaryl, cycloalkyl or alkyl. wherein; ---- is a single bond or a double bond; X is selected from -O- or -N-; n is 0-6; R 1 is selected from alkyl or cycloalkyl; R 2 and R 3 are independently selected from hydrogen, halogen, hydroxy, nitro, cyano, azido, nitroso, oxo (=O), thioxo (=S), -SO 2 -, amino, hydrazino, formyl, alkyl, haloalkyl, alkoxy, haloalkoxy; arylalkoxy; cycloalkyl, cycloalkyloxy, aryl, heterocyclyl, heteroaryl, alkylamino, -COOR a, -C R b, -C R a, -C NR a R b, -C NR a R b, -NR a C NR b R c, NR a C NR b R c, -N(R a)SOR b, -N(R a)SO 2 R b, -NR a C OR b, -NR a R b, -NR a C R b -, NR a C R b -, -SONR a R b -, -SO 2 NR a R b -, -OR a, -OR a C OR b -, -OC NR a R b, OC R a, - OC NR a R b -, -R a NR b R c, -R a OR b -,-SR a, -SOR a Or-SO 2 R a, wherein R a, R b and R c are independently selected from hydrogen, alkyl, cycloalkyl, aryl, arylalkyl, heterocyclyl, heteroaryl or hetroarylalkyl; R 4 is selected from hydrogen, alkyl, cycloalkyl, cyloalkenyl, cycloalkylalkyl, aryl, arylalkyl, heterocyclyl, heterocyclylalkyl, heteroaryl, heteroarylalkyl or haloalkyl; Z is selected from hydrogen, -CH 2 OR 5,-COOR 5, -CONR 5 R 6, -NHCOOR 5, -NHCOR 5 or - NHSO 2 R 5; R 5 and R 6 are independently selected from hydrogen, hydroxyl, aryl, heteroaryl, cycloalkyl or alkyl.
An operations and maintenance arrangement for floating wind turbines, comprising a floating sub-structure on which at least one wind turbine unit is situated, a service operation vessel and a portable crane, said floating sub-structure having an interface capable of receiving and fixedly locking said crane to said sub-structure, said service operation vessel having a ship crane capable of lifting said portable crane from said vessel and onto said sub-structure, characterized in that said arrangement further comprising a support to receive components, such as wind turbine blades (10, 17) or gear units, to be installed on the wind turbine, said support having an interface to mate and fixedly lock with an interface on said floating sub-structure.
A pill feeder comprising: a rotating disk including a receiving area for receiving a plurality of pills, the rotating disk configured to move the plurality of pills in a rotating direction about a surface of the rotating disk; a lift gate located on the rotating disk in the rotation direction of the rotating disk relative to the receiving area, the lift gate configured to raise a height above the surface of the rotating disk that permits passage of a single layer of the plurality of pills; a separator gate located on the rotating disk in the rotation direction of the rotating disk relative to the receiving area, the separator gate configured to open a width that permits passage of a single row of the plurality of pills; a mixer interacting with the pills in the area between the lift gate and the separator gate and that is configured to counter-rotate relative to the rotation direction; and an exit path located on the rotating disk in the rotation direction of the rotating disk relative to the separator gate and the lift gate. a rotating disk including a receiving area for receiving a plurality of pills, the rotating disk configured to move the plurality of pills in a rotating direction about a surface of the rotating disk; a lift gate located on the rotating disk in the rotation direction of the rotating disk relative to the receiving area, the lift gate configured to raise a height above the surface of the rotating disk that permits passage of a single layer of the plurality of pills; a separator gate located on the rotating disk in the rotation direction of the rotating disk relative to the receiving area, the separator gate configured to open a width that permits passage of a single row of the plurality of pills; a mixer interacting with the pills in the area between the lift gate and the separator gate and that is configured to counter-rotate relative to the rotation direction; and an exit path located on the rotating disk in the rotation direction of the rotating disk relative to the separator gate and the lift gate.
A polymerizable polyacidic polymer having repeating units of the following formula: wherein R 1 represents a group of the following formula: wherein Ar is an aromatic group which may be further substituted, R 2 and R 3, which may be the same or different, independently represent a hydrogen atom, or a C 1-6 alkyl group which may be substituted with a carboxylic acid group; R which may be the same or different when more than one R is present, represents a hydrogen atom, a carboxylic acid group, a COOR a group, a CONHR b group, or a CONR c 2 group, wherein R a, R b, and R c represent a C 1-6 alkyl group; R 8 represents a halogen atom or a group selected from -OH, -OR d, -NR e H,-NR e R f, -SH, and -SR g, wherein R d, R e, R f, R g, and R g, represent a C 1-6 alkyl group; o is an integer of 1 or 2; n is an integer of 1 to 4; provided that when o is 2, the R 8 cannot be both OH. Ar is an aromatic group which may be further substituted, R 2 and R 3, which may be the same or different, independently represent a hydrogen atom, or a C 1-6 alkyl group which may be substituted with a carboxylic acid group; R which may be the same or different when more than one R is present, represents a hydrogen atom, a carboxylic acid group, a COOR a group, a CONHR b group, or a CONR c 2 group, wherein R a, R b, and R c represent a C 1-6 alkyl group; R 8 represents a halogen atom or a group selected from -OH, -OR d, -NR e H,-NR e R f, -SH, and -SR g, wherein R d, R e, R f, R g, and R g, represent a C 1-6 alkyl group; o is an integer of 1 or 2; n is an integer of 1 to 4;
A method for controlling a solar power system, comprising: operating a plurality of power optimizers connected in series between two input terminals of an inverter, wherein the plurality of power optimizers are connected to a plurality of solar panels, respectively, each pair of solar panel and power optimizer forming a power module, thereby forming a plurality of power modules connected in series, the method comprising: measuring operation parameters of the plurality of the solar panels; calculating a maximum power flow of each solar panel based upon the measuring detecting a maximum power point tracking, MPPT, current assigned to a corresponding maximum power flow for each solar panel; determining a mode transition range based upon the maximum power flows of the plurality of solar panels; and configuring a first power optimizer to operate in a pass-through mode if a maximum power point tracking current of a first solar panel connected to the first power optimizer is within the mode transition range, wherein: a midpoint of the mode transition range is a current approximately equal to a sum of the maximum power flows of the plurality of solar panels divided by an input voltage applied to the input terminals of the inverter. operating a plurality of power optimizers connected in series between two input terminals of an inverter, wherein the plurality of power optimizers are connected to a plurality of solar panels, respectively, each pair of solar panel and power optimizer forming a power module, thereby forming a plurality of power modules connected in series, the method comprising: measuring operation parameters of the plurality of the solar panels; calculating a maximum power flow of each solar panel based upon the measuring detecting a maximum power point tracking, MPPT, current assigned to a corresponding maximum power flow for each solar panel; determining a mode transition range based upon the maximum power flows of the plurality of solar panels; and configuring a first power optimizer to operate in a pass-through mode if a maximum power point tracking current of a first solar panel connected to the first power optimizer is within the mode transition range, wherein: a midpoint of the mode transition range is a current approximately equal to a sum of the maximum power flows of the plurality of solar panels divided by an input voltage applied to the input terminals of the inverter.
Apparatus comprising: an optical structure; at least two ridges (14; 14a-p), each connecting the optical structure to a supporting structure; and an electrostatic drive (182a; 182b) for deflecting the optical structure, wherein the electrostatic drive (182a; 182b) includes a cantilever electrode (174a; 174b) and a stationary electrode (176a; 176b) electrically insulated from the cantilever electrode, which at least partly opposes the cantilever electrode (174a; 174b), wherein the cantilever electrode (174a; 174b) is arranged on or in at least one portion (166a; 166b) of at least one ridge (14; 14a-p) and wherein the cantilever electrode (174a; 174b) projects at least partly out of a plane of the at least one ridge (14; 14a-p) and is deflected in the direction of the stationary electrode (176a; 176b), in order to effect deformation of the ridge (14; 14a-p) when an electric field is applied between the cantilever electrode (174a; 174b) and stationary electrode (176a; 176b); wherein the distance between the cantilever electrode (174a; 174b) and the stationary electrode (176a; 176b) increases starting from a position adjacent to the supporting structure in the non-deflected state of the actuator in the direction of the optical structure. an optical structure; at least two ridges (14; 14a-p), each connecting the optical structure to a supporting structure; and an electrostatic drive (182a; 182b) for deflecting the optical structure, wherein the electrostatic drive (182a; 182b) includes a cantilever electrode (174a; 174b) and a stationary electrode (176a; 176b) electrically insulated from the cantilever electrode, which at least partly opposes the cantilever electrode (174a; 174b), wherein the cantilever electrode (174a; 174b) is arranged on or in at least one portion (166a; 166b) of at least one ridge (14; 14a-p) and wherein the cantilever electrode (174a; 174b) projects at least partly out of a plane of the at least one ridge (14; 14a-p) and is deflected in the direction of the stationary electrode (176a; 176b), in order to effect deformation of the ridge (14; 14a-p) when an electric field is applied between the cantilever electrode (174a; 174b) and stationary electrode (176a; 176b); wherein the distance between the cantilever electrode (174a; 174b) and the stationary electrode (176a; 176b) increases starting from a position adjacent to the supporting structure in the non-deflected state of the actuator in the direction of the optical structure.
A composition comprising one or more chemical entities of formula I, each of which is a compound of formula I: a pharmaceutically acceptable salt thereof, a solvate thereof, or a solvate of a pharmaceutically acceptable salt thereof, the composition characterized in that greater than or equal to a first threshold amount of the total amount of chemical entities of formula I in the composition: are chemical entities of formula I.a: wherein the first threshold amount is 50%. a pharmaceutically acceptable salt thereof, a solvate thereof, or a solvate of a pharmaceutically acceptable salt thereof, the composition characterized in that greater than or equal to a first threshold amount of the total amount of chemical entities of formula I in the composition: are chemical entities of formula I.a: