mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for installing in a sensor port of a flow cell, the apparatus comprising: an insert body configured for insertion into the sensor port, the insert body defines a cavity having an opening located at a first end of the insert body and an ultrasonic buffer at a second end of the insert body; a transducer assembly located in the cavity of the insert body, the transducer assembly comprises a housing having a first end, a second end proximate to the ultrasonic buffer opposite of the first end of the housing, and a piezoelectric crystal located in the second end of the housing; a holding nut located in the cavity proximate to the first end of the housing applying a compressive force to the housing to keep the second end of the housing proximate to the ultrasonic buffer; a coupling material in fluid form located in an area between the second end of the housing and the ultrasonic buffer; a first o-ring located in the cavity proximate to the housing to assist in preventing the leakage of the coupling material from the area between the housing and the ultrasonic buffer; and the insert body has an external surface that, at the second end of the insert body that incudes the ultrasonic buffer, includes threads or concentric grooves that dampen acoustic reflections/ring downs in the ultrasonic buffer. an insert body configured for insertion into the sensor port, the insert body defines a cavity having an opening located at a first end of the insert body and an ultrasonic buffer at a second end of the insert body; a transducer assembly located in the cavity of the insert body, the transducer assembly comprises a housing having a first end, a second end proximate to the ultrasonic buffer opposite of the first end of the housing, and a piezoelectric crystal located in the second end of the housing; a holding nut located in the cavity proximate to the first end of the housing applying a compressive force to the housing to keep the second end of the housing proximate to the ultrasonic buffer; a coupling material in fluid form located in an area between the second end of the housing and the ultrasonic buffer; a first o-ring located in the cavity proximate to the housing to assist in preventing the leakage of the coupling material from the area between the housing and the ultrasonic buffer; and the insert body has an external surface that, at the second end of the insert body that incudes the ultrasonic buffer, includes threads or concentric grooves that dampen acoustic reflections/ring downs in the ultrasonic buffer.
Induction generator (1, 1') for a radio-operated switch, wherein the induction generator (1, 1') has a magnet element, an induction coil with a U-shaped coil core, and a spring element for operating the induction generator (1, 1'), wherein the spring element forms a first mechanical energy store for storing operating energy, which first mechanical energy store is designed as a leaf-like spring element or a helical spring and is operatively connected to the magnet element, wherein a first rest position and a second rest position respectively bearing against the limbs (6, 7) of the coil core are defined for the magnet element, wherein, in the first rest position, a pole of the magnet element of first polarity is situated opposite the first limb and a pole of the magnet element of second polarity, which is different from the first polarity, is situated opposite the second limb and, in the second rest position, the pole of the magnet element of second polarity is situated opposite the first limb and the pole of the magnet element of first polarity is situated opposite the second limb, as a result of which a reversal in flow direction respectively takes place in the coil core in the event of a changeover between the rest positions (Y1, Y2), characterized in that the magnet element, for reversing the polarity of the coil core, is arranged on the induction generator (1, 1') such that it can be displaced relative to the limbs (6, 7) in a direction in which the limbs (6, 7) are adjacent to one another, wherein a movement path for the magnet element for a movement between the rest positions (Y1, Y2) is prespecified by means of a cam controller which is formed by means of a control profile and an engagement element which is guided along the control profile, wherein the control profile, between the first rest position and the second rest position, defines a position for the magnet element, which position is designed as a metastable or unstable position, and in that the first mechanical energy store extends from a force introduction region of the spring element in the direction of the magnet element and in the course of forcing a movement of the magnet element from a rest position (Y1, Y2) initially stores energy and outputs said energy to the magnet element after the magnet element reaches an intermediate position which is defined along the movement path, corresponding to which the magnetic forces on the coil core suddenly drop, for mechanically accelerating the movement of the magnet element to the respectively other rest position (Y2, Y1) after leaving the intermediate position.
A photochromic material that is essentially free of polymerizable unsaturated groups, said photochromic material comprising: a) an indeno[2',3':3,4]naphtho[1,2-b]pyran; b) an electron-withdrawing, non-conjugating group comprising an α-haloalkyl, a,a-dihaloalkyl, trihalomethyl group, a perhalo(C 2 -C 10)alkyl group, a perhaloalkoxy group, or the group -O-C -R, wherein R is a linear or branched group chosen from C 1 -C 10 alkyl, C 1 -C 10 haloalkyl, or C 1 -C 10 perhaloalkyl bonded at the 11 -position of the indeno[2',3':3,4]naphtho[1,2-b]pyran; and c) two groups bonded at the 13-position of the indeno[2',3':3,4]naphtho[1,2-b]pyran, provided that said groups do not combine to form a spirocyclic group. a) an indeno[2',3':3,4]naphtho[1,2-b]pyran; b) an electron-withdrawing, non-conjugating group comprising an α-haloalkyl, a,a-dihaloalkyl, trihalomethyl group, a perhalo(C 2 -C 10)alkyl group, a perhaloalkoxy group, or the group -O-C -R, wherein R is a linear or branched group chosen from C 1 -C 10 alkyl, C 1 -C 10 haloalkyl, or C 1 -C 10 perhaloalkyl bonded at the 11 -position of the indeno[2',3':3,4]naphtho[1,2-b]pyran; and c) two groups bonded at the 13-position of the indeno[2',3':3,4]naphtho[1,2-b]pyran, provided that said groups do not combine to form a spirocyclic group.
Agricultural field sprayer for the metered dispensing of fertilizers and/or crop treatment compositions diluted with diluting liquid, used preferably in the form of fresh water, to form a spray liquor, having a spray tank, at least one induction container having at least one diluting-liquid supply device and at least one filling opening, wherein the induction container is assigned a cover that is pivotable selectively into an open position opening up the filling opening or into a closed position closing the filling opening, wherein the upwardly directed face of the cover, when the latter is in its open position opening up the filling opening in order to pour in the crop treatment compositions and/or fertilizers, is inclined towards the filling opening, characterized in that the cover is able to be pivoted from its closed position into its open position and vice versa in each case through about 170°, in that the cover, in its open position, projects with its side adjacent to the filling opening of the induction container beyond the outer upper rim of the induction container in the direction of the filling opening, in that the cover is bent downwards in its region projecting beyond the filling opening and/or has at least one drip edge located in the region of the filling opening.
A polymer electrolyte comprising: a poly(ethylene oxide) containing polymer; and a lithium salt, wherein the poly(ethylene oxide) containing polymer is represented by any one of formulas 1 to 3 below: wherein n is a repeating unit of an integer of 10 to 120, and R is an alkyl chain having 1-4 carbon atoms. a poly(ethylene oxide) containing polymer; and a lithium salt, wherein the poly(ethylene oxide) containing polymer is represented by any one of formulas 1 to 3 below: wherein n is a repeating unit of an integer of 10 to 120, and R is an alkyl chain having 1-4 carbon atoms.
Caliper disc brake of a vehicle, in particular of a commercial vehicle, with a brake disc having an axis of rotation, a brake caliper, a brake support plate, a force transmission element, such as, for example, a pad support (24, 26) and/or a pressure plate, which is guided and supported in a well of the brake caliper or of the brake support plate, a holding-down spring (30, 32, 34) for holding down the force transmission element, and a holding-down device, which is held and supported on Caliper by a holding device (38, 40) and which preloads the holding-down spring radially against the force transmission device and preloads the holding-down spring tangentially in the direction of rotation against the force transmission device during forward travel, wherein the holding-down device has a center line parallel to the axis of rotation, characterized in that the holding-down spring (30, 32, 34) has two identical spring legs (76, 78) and a trapezoidal central region which is located in between and projects radially inward, wherein the two legs of the trapezoidal region each enclose an angle (α) of more than 95° with the base in the relaxed state and an angle (β) of less than 85° with the respectively adjacent spring leg.
An inductive component (100; 200) comprising: a magnetic core (10; 210), an insulation body (20; 220) formed from an electrically insulating material, in which the magnetic core (10; 210) is housed, the insulation body (20; 220) having at least two interconnected insulation wall portions (22, 24; 222, 224), each of which is at least partially facing a side surface portion (14, 16; 214) of the magnetic core (10; 210), at least one winding (W1; W2), and a bobbin (30; 230) on which the at least one winding (W1; W2) is wound, comprising at least one contact element (50b; 250a) attached to a side surface portion (37b; 237a) of the bobbin (30; 230) for electrical connection to the at least one winding (W1; W2), and a magnetic core receptacle (32; 232) in which the magnetic core (10; 210) housed in the insulation body (20; 220) is partially accommodated, wherein a side surface portion (14; 214) of the magnetic core (10; 210) facing the at least one contact element (50b; 250a) is at least partially covered by one of the insulation wall portions (24; 224) of the insulation body (20; 220), characterized in that the insulation body further comprises at least one rib portion formed on the insulation wall portion facing the at least one contact member and protruding to the outside away from the insulation body along a normal direction of the insulation wall portion. a magnetic core (10; 210), an insulation body (20; 220) formed from an electrically insulating material, in which the magnetic core (10; 210) is housed, the insulation body (20; 220) having at least two interconnected insulation wall portions (22, 24; 222, 224), each of which is at least partially facing a side surface portion (14, 16; 214) of the magnetic core (10; 210), at least one winding (W1; W2), and a bobbin (30; 230) on which the at least one winding (W1; W2) is wound, comprising at least one contact element (50b; 250a) attached to a side surface portion (37b; 237a) of the bobbin (30; 230) for electrical connection to the at least one winding (W1; W2), and a magnetic core receptacle (32; 232) in which the magnetic core (10; 210) housed in the insulation body (20; 220) is partially accommodated, at least one contact element (50b; 250a) attached to a side surface portion (37b; 237a) of the bobbin (30; 230) for electrical connection to the at least one winding (W1; W2), and a magnetic core receptacle (32; 232) in which the magnetic core (10; 210) housed in the insulation body (20; 220) is partially accommodated, wherein a side surface portion (14; 214) of the magnetic core (10; 210) facing the at least one contact element (50b; 250a) is at least partially covered by one of the insulation wall portions (24; 224) of the insulation body (20; 220), characterized in that the insulation body further comprises at least one rib portion formed on the insulation wall portion facing the at least one contact member and protruding to the outside away from the insulation body along a normal direction of the insulation wall portion.
System for the metal coating of a running surface of a cylinder bore of a workpiece, which is an engine block, having at least one rotatable coating lance, by which a metal plasma jet for coating a bore wall can be produced, and a rotary table, which is designed as a circulating conveyor with at least two workpiece receiving parts that can be moved in a circulating manner by the circulating conveyor along a horizontal movement path, wherein the workpiece is received and clamped in a defined position in the circulating workpiece receiving part, a loading station and a processing station, in which the coating is effected by means of a coating device with the coating lance, wherein the workpiece can be transported with the circulating conveyor between the loading station and the processing station, and in that the loading station is designed for supplying and removing the workpiece, characterized in that - the loading station is located opposite the processing station, - in that measuring means is arranged for measuring the workpiece in the region of the loading station, - in that the coating device and the measuring means are separated from each other by a partition wall, and - in that the partition wall has at least one closable passageway for the passage of the workpiece. - the loading station is located opposite the processing station, - in that measuring means is arranged for measuring the workpiece in the region of the loading station, - in that the coating device and the measuring means are separated from each other by a partition wall, and - in that the partition wall has at least one closable passageway for the passage of the workpiece.
A data transmission method, applied to an offload card, wherein the offload card comprises a virtual switch and a processor, the method is performed by the virtual switch, and the method comprises: receiving, by the virtual switch, a management request sent by a management node, wherein the management request comprises a destination media access control, MAC, address, and the destination MAC address is a MAC address of a server; determining, by the virtual switch, whether the management request is to be processed by the offload card; characterized in that when the virtual switch determines that the management request is to be processed by the offload card, updating, by the virtual switch, the management request, and obtaining an updated management request, wherein the destination MAC address in the updated management request is a MAC address of the offload card; and sending, by the virtual switch, the updated management request to the processor. receiving, by the virtual switch, a management request sent by a management node, wherein the management request comprises a destination media access control, MAC, address, and the destination MAC address is a MAC address of a server; determining, by the virtual switch, whether the management request is to be processed by the offload card; when the virtual switch determines that the management request is to be processed by the offload card, updating, by the virtual switch, the management request, and obtaining an updated management request, wherein the destination MAC address in the updated management request is a MAC address of the offload card; and sending, by the virtual switch, the updated management request to the processor.
Method for determining the level of efficiency of a ventilation system of an electrical enclosure intended to house one or more electrical devices, said ventilation system comprising an air inlet, at least one fan for assisting injection of air inside the enclosure in order to cool each electrical device, an air inlet filter designed to filter the air injected inside the enclosure and an air outlet designed to allow evacuation of the hot air outside the enclosure, characterized in that it comprises: - a learning step comprising a step for determining a profile of the power dissipated by the Joule effect inside the electrical enclosure by each electrical device, during a learning period (T APP), - an evaluation step (EVAL) for evaluating the level of efficiency of ventilation system, comprising: - a step for determining the average air flow rate of the fan over an evaluation period (T EVAL) from a profile of the temperature of the air outside the enclosure obtained over said evaluation period, a profile of the temperature of the air at the outlet of the enclosure, and said dissipated power profile determined during the learning step, - a step for comparing the average air flow rate ( D moyen) determined over said evaluation period with one or more threshold values in order to determine the level of efficiency of the ventilation system. - a learning step comprising a step for determining a profile of the power dissipated by the Joule effect inside the electrical enclosure by each electrical device, during a learning period (T APP), - an evaluation step (EVAL) for evaluating the level of efficiency of ventilation system, comprising: - a step for determining the average air flow rate of the fan over an evaluation period (T EVAL) from a profile of the temperature of the air outside the enclosure obtained over said evaluation period, a profile of the temperature of the air at the outlet of the enclosure, and said dissipated power profile determined during the learning step, - a step for comparing the average air flow rate ( D moyen) determined over said evaluation period with one or more threshold values in order to determine the level of efficiency of the ventilation system. - a step for determining the average air flow rate of the fan over an evaluation period (T EVAL) from a profile of the temperature of the air outside the enclosure obtained over said evaluation period, a profile of the temperature of the air at the outlet of the enclosure, and said dissipated power profile determined during the learning step, - a step for comparing the average air flow rate ( D moyen) determined over said evaluation period with one or more threshold values in order to determine the level of efficiency of the ventilation system.
A vacuum pump comprising: a motor for driving a vacuum pumping mechanism of the pump, the motor being housed in a motor housing; a drive shaft supporting the pumping mechanism for rotation when the motor rotates the drive shaft; a motor cooling mechanism supported for rotation by the drive shaft, configured to generate a flow of cooling gas along a first flow path for cooling the motor housing when the motor rotates the drive shaft; a control for controlling the motor, a control cooling mechanism for generating a cooling gas flow along a second flow path for guiding a cooling gas for cooling the control and for guiding the cooling gas flow to at least one opening of a control housing; wherein the control housing is arranged to be mounted in fixed relation to the motor housing with said at least one opening in the first flow path so that the cooling gas flow along the second flow path cools the motor housing when the motor cooling mechanism is inoperative; and wherein the gas flow along the first flow path causes gas flow along the second flow path when the control cooling mechanism is inoperative. a motor for driving a vacuum pumping mechanism of the pump, the motor being housed in a motor housing; a drive shaft supporting the pumping mechanism for rotation when the motor rotates the drive shaft; a motor cooling mechanism supported for rotation by the drive shaft, configured to generate a flow of cooling gas along a first flow path for cooling the motor housing when the motor rotates the drive shaft; a control for controlling the motor, a control cooling mechanism for generating a cooling gas flow along a second flow path for guiding a cooling gas for cooling the control and for guiding the cooling gas flow to at least one opening of a control housing; wherein the control housing is arranged to be mounted in fixed relation to the motor housing with said at least one opening in the first flow path so that the cooling gas flow along the second flow path cools the motor housing when the motor cooling mechanism is inoperative; and wherein the gas flow along the first flow path causes gas flow along the second flow path when the control cooling mechanism is inoperative.
A device for feeding wire to wire-working machines, in which device the wire is drawn off from a reel which receives a wire coil and is rotatable about a spindle, and is fed to a wire intake which precedes the wire-working machine, wherein the reel is succeeded in the wire take-off direction (x) by at least one wire deflection means, over which the wire which is drawn off from the reel is guided and is delivered towards the wire intake, and wherein a wire storage means is provided preceding the wire intake, characterised in that the wire storage means prescribes a guide path forming a closed circuit, on which path the wire runs and the diameter of which can be altered between a smaller value (d 2), which corresponds to an inner radial position of the guide path, and a larger value (d 1), which corresponds to an outer radial position of the guide path, the guide path being spring-biased towards assuming the outer radial position thereof.
Use as perfuming ingredient of a compound of formula in the form of any one of its stereoisomers or a mixture thereof, and wherein X represents a CHO group when R 1 represents a C 1-2 alkyl group or X represents a CH(R 6)CHO group when R 1 represents a hydrogen atom or a C 1-2 alkyl group; each R 2, R 3, R 4, R 5 and R 6 represents, independently from each other, a hydrogen atom or a C 1-2 alkyl group; or R 3 and R 4 represent, when taken together, an ethanediyl group; and -C(R 3)(R 4)-CH(R 5)-OH group is, relative to position 1, an ortho, a meta, a para substituent of the aromatic ring or a mixture thereof. X represents a CHO group when R 1 represents a C 1-2 alkyl group or X represents a CH(R 6)CHO group when R 1 represents a hydrogen atom or a C 1-2 alkyl group; each R 2, R 3, R 4, R 5 and R 6 represents, independently from each other, a hydrogen atom or a C 1-2 alkyl group; or R 3 and R 4 represent, when taken together, an ethanediyl group; and -C(R 3)(R 4)-CH(R 5)-OH group is, relative to position 1, an ortho, a meta, a para substituent of the aromatic ring or a mixture thereof.