mhurhangee/ep-ind-claims huggingface dataset:
A reclosable lid for a cup or beaker for beverage, the lid comprising a first and a second lid body (11, 10), said lid comprising an edge region adapted to provide coupling with a respective edge of said cup or beaker, said first lid body being inserted inside the second lid body, said first lid body comprising a first projecting member with a dispensing port at the top of the lid, wherein said second lid body comprises a closure member for closing said dispensing port, characterized in that said second lid body further comprises a second protruding member as a support means for supporting the closure member in its open position, the closure member and the support means are arranged in the upper region of said second lid body.
Centrifugal spreader for dispensing granular material, comprising: a storage container for the granular material to be spread; a weighing device for determining current values of the quantity of granular material in the storage container; at least one centrifugal disc, which is assigned an adjustable metering element; a drive of the at least one centrifugal disc; a sensor device for determining a load torque of the drive of the centrifugal disc; and a control unit, which is connected to the weighing device and the sensor device; wherein the control unit is designed in such a way that the metering element is regulated or controlled on the basis of a comparison of the actual value with the target value of the mass flow applied,; wherein it determines the actual value on the basis of measured values from the weighing device if the load torque measured by the sensor device is lower than a predetermined threshold value, or a time interval since activation of the drive which is shorter than a predetermined time interval has elapsed; wherein it determines the actual value on the basis of measured values from the sensor device if the load torque measured by the sensor device is greater than the predetermined threshold value, or a time interval since activation of the drive which is longer than the predetermined time interval has elapsed, and wherein the predetermined time interval corresponds to a warming phase of the drive. a storage container for the granular material to be spread; a weighing device for determining current values of the quantity of granular material in the storage container; at least one centrifugal disc, which is assigned an adjustable metering element; a drive of the at least one centrifugal disc; a sensor device for determining a load torque of the drive of the centrifugal disc; and a control unit, which is connected to the weighing device and the sensor device; wherein the control unit is designed in such a way that the metering element is regulated or controlled on the basis of a comparison of the actual value with the target value of the mass flow applied,; wherein it determines the actual value on the basis of measured values from the weighing device if the load torque measured by the sensor device is lower than a predetermined threshold value, or a time interval since activation of the drive which is shorter than a predetermined time interval has elapsed; wherein it determines the actual value on the basis of measured values from the sensor device if the load torque measured by the sensor device is greater than the predetermined threshold value, or a time interval since activation of the drive which is longer than the predetermined time interval has elapsed, and wherein the predetermined time interval corresponds to a warming phase of the drive.
A ring laser gyroscope characterised in having a circuit comprising: a current source (210,310); a bridge network (220, 320) including: a first node (224, 324) and a second node (227, 327), the first node coupled to the current source (210,310); a first branch (221a, 321a) coupled between the first node (224, 324) and the second node (227, 327); a second branch (221b, 321b) coupled in parallel with the first branch (221a, 321 a) between the first node (224, 324) and the second node (227, 327); wherein the first branch (221a, 321a) includes a first temperature sensing element (226a, 326a) of a first resistive temperature device in series with a first resistor; wherein the second branch (221b, 321b) includes a second temperature sensing element (226b, 326b) of a second temperature device in series with a second resistor; a first output (V a-b) that provides a signal representing a difference between a voltage developed across the first temperature sensing element (226a, 326a) and a voltage developed across the second temperature sensing element (226b, 326b); and a second output (V T) providing a voltage representing a difference in voltage between the first node (224, 324) and the second node (227, 327); wherein the first resistive temperature device and the second resistive temperature device are located within the ring laser gyroscope to measure a temperature differential across a laser block sensor. a current source (210,310); a bridge network (220, 320) including: a first node (224, 324) and a second node (227, 327), the first node coupled to the current source (210,310); a first branch (221a, 321a) coupled between the first node (224, 324) and the second node (227, 327); a second branch (221b, 321b) coupled in parallel with the first branch (221a, 321 a) between the first node (224, 324) and the second node (227, 327); wherein the first branch (221a, 321a) includes a first temperature sensing element (226a, 326a) of a first resistive temperature device in series with a first resistor; a first node (224, 324) and a second node (227, 327), the first node coupled to the current source (210,310); a first branch (221a, 321a) coupled between the first node (224, 324) and the second node (227, 327); a second branch (221b, 321b) coupled in parallel with the first branch (221a, 321 a) between the first node (224, 324) and the second node (227, 327); wherein the second branch (221b, 321b) includes a second temperature sensing element (226b, 326b) of a second temperature device in series with a second resistor; a first output (V a-b) that provides a signal representing a difference between a voltage developed across the first temperature sensing element (226a, 326a) and a voltage developed across the second temperature sensing element (226b, 326b); and a second output (V T) providing a voltage representing a difference in voltage between the first node (224, 324) and the second node (227, 327); wherein the first resistive temperature device and the second resistive temperature device are located within the ring laser gyroscope to measure a temperature differential across a laser block sensor.
A system for determining the orientation of at least one first wheel and one second wheel of a vehicle under examination in a measuring area, said wheels being arranged on a first side of said vehicle with respect to a longitudinal axis thereof, comprising: - a first target and a second target, coupled, respectively, to said first and second wheels; - a first detection device, arranged laterally with respect to said vehicle on said first side with respect to said longitudinal axis, in a position set between said first and second wheels, and including a first image-acquisition element and a second image-acquisition element, having a respective viewing area configured to acquire images respectively of the first target and the second target coupled, respectively, to said first and second wheels, - a processing device, operatively coupled to said first detection device and configured to determine characteristic angles of orientation of said first and second wheels as a function of a single image acquired for each of said first and second wheels, respectively by said first and second image-acquisition elements of said first detection device, characterized in that the first detection device comprises a displacement unit, operatively coupled to said first image-acquisition element and second image-acquisition element, and configured to jointly rotate said first image-acquisition element and said second image-acquisition element in a horizontal plane in opposite directions through a same angle of rotation so as to adapt simultaneously their viewing area to the position, respectively, of the first target and of the second target, according to different values of track and/or wheelbase of the vehicle and/or to a different positioning thereof in the measuring area. - a first target and a second target, coupled, respectively, to said first and second wheels; - a first detection device, arranged laterally with respect to said vehicle on said first side with respect to said longitudinal axis, in a position set between said first and second wheels, and including a first image-acquisition element and a second image-acquisition element, having a respective viewing area configured to acquire images respectively of the first target and the second target coupled, respectively, to said first and second wheels, - a processing device, operatively coupled to said first detection device and configured to determine characteristic angles of orientation of said first and second wheels as a function of a single image acquired for each of said first and second wheels, respectively by said first and second image-acquisition elements of said first detection device,
A sanding system comprising: a tool (500, 802) with a motor which, when actuated, drives movement of a drive shaft; a backup pad (300, 850) coupled to the drive shaft, wherein the backup pad is configured to receive an abrasive article, and wherein movement of the drive shaft causes movement of the abrasive article; characterized in that a compliant damping unit is configured to provide variable compliance for the tool when the abrasive article is contacting a worksurface, wherein the damping unit comprises a magnetorheological fluid that changes from a first viscosity to a second viscosity when an applied current is changed from a first current to a second current, wherein the magnetorheological fluid is housed in the backup pad and wherein the current is applied to a contact ring (310, 320) on a surface of the backup pad; and an electronic controller that receives a system operating condition, sends a signal to the compliant damping unit based on the system operating condition. a tool (500, 802) with a motor which, when actuated, drives movement of a drive shaft; a backup pad (300, 850) coupled to the drive shaft, wherein the backup pad is configured to receive an abrasive article, and wherein movement of the drive shaft causes movement of the abrasive article; characterized in that a compliant damping unit is configured to provide variable compliance for the tool when the abrasive article is contacting a worksurface, wherein the damping unit comprises a magnetorheological fluid that changes from a first viscosity to a second viscosity when an applied current is changed from a first current to a second current, wherein the magnetorheological fluid is housed in the backup pad and wherein the current is applied to a contact ring (310, 320) on a surface of the backup pad; and an electronic controller that receives a system operating condition, sends a signal to the compliant damping unit based on the system operating condition.
An electrowetting device comprising one or more cells, each cell comprising: - an electrowetting composition, comprising first and second immiscible fluids, the first fluid being an electrolytic solution, - a first electrode, separated from the electrowetting composition by a dielectric, and - a voltage source for applying an operating voltage difference between the first electrode and the electrolytic solution to operate the electrowetting device, wherein - the first electrode comprises a valve metal characterized in that the electrolytic solution is capable of anodizing the valve metal to form a metal oxide at the operating voltage difference. - an electrowetting composition, comprising first and second immiscible fluids, the first fluid being an electrolytic solution, - a first electrode, separated from the electrowetting composition by a dielectric, and - a voltage source for applying an operating voltage difference between the first electrode and the electrolytic solution to operate the electrowetting device, - the first electrode comprises a valve metal
A continuous rotary heat-sealing machine, particularly for joining heat-sealable films, papers or ribbons, which comprises a frame (50, 55) provided with at least one first pair of rotating shafts and at least one second pair of rotating shafts, and at least one pair of tracks, each one mounted on a shaft of said first pair of rotating shafts and on a shaft of said second pair of rotating shafts, said tracks being arranged substantially in contact with each other, rotating in opposite directions, and being adapted to create a pressure plane, wherein said tracks comprise sectors which are mutually joined by way of a chain of bearings, said sectors having, on the upper surface, a slider which is fixed to a support, said sliders comprising a recess adapted to accommodate an item or product to be packaged and sealed within said heat-sealable films or ribbons, characterized in that heating elements are provided to heat the tracks that create said pressure plane, at least one guiding axle being provided, adapted to control at least one track of said pair of tracks on rotation, said guiding axle comprising, at its opposite end with respect to the frame of the continuous rotary heat-sealing machine, an electrical contact made up of a fixed part and a rotating part, the fixed part being locked on said guiding axle and the rotating part rotating as a consequence of the rotation of the track, the electricity needed to heat said heating elements being supplied through said guiding axle.
An apparatus comprising: a monitoring module configured to identify a difference between measured position information for a controller and expected position information for the controller; and characterized in that the monitoring module is further configured to: compare the difference with each of a plurality of thresholds for managing an autopilot in a control system of a vehicle to form a comparison; and manage an operation of the autopilot based on the comparison such that the autopilot remains operating when a backdrive system is inoperative and the monitoring module determines that an intention to override the autopilot is absent. a monitoring module configured to identify a difference between measured position information for a controller and expected position information for the controller; and characterized in that the monitoring module is further configured to: compare the difference with each of a plurality of thresholds for managing an autopilot in a control system of a vehicle to form a comparison; and manage an operation of the autopilot based on the comparison such that the autopilot remains operating when a backdrive system is inoperative and the monitoring module determines that an intention to override the autopilot is absent. compare the difference with each of a plurality of thresholds for managing an autopilot in a control system of a vehicle to form a comparison; and manage an operation of the autopilot based on the comparison such that the autopilot remains operating when a backdrive system is inoperative and the monitoring module determines that an intention to override the autopilot is absent.
A communication method for a femto Advanced Base Station, ABS, in which a specific femto ABS performs communication in a mobile communication system including a macro ABS, one or more femto ABSs, and one or more Advanced Mobile Stations, AMSs, the communication method comprising: broadcasting cell type information indicating that the specific femto ABS is being operated as a first type Closed Subscriber Group, CSG, femto ABS from among an Open Subscriber Group, OSG, femto ABS the first type CSG femto ABS and a second type CSG femto ABS, wherein the first type CSG femto ABS and the second type CSG femto ABS are classified by accessibility of non-member AMSs to the specific femto ABS; converting type of the specific femto ABS from the first type CSG femto ABS to the second type CSG femto ABS under a specific condition; and transmitting a signal including the converted cell type information indicating that the specific femto ABS is being operated as the second type CSG femto ABS to at least one of the one or more AMSs, wherein the specific condition comprises: reception of a ranging request message including an indicator for requesting interference mitigation from the non-member AMS of the specific femto ABS that undergoes interference by the specific femto ABS, or reception of type change request indicating that the purpose is to perform interference mitigation for the non-member AMS of the specific femto ABS that undergoes interference by the specific femto ABS, from the macro ABS. broadcasting cell type information indicating that the specific femto ABS is being operated as a first type Closed Subscriber Group, CSG, femto ABS from among an Open Subscriber Group, OSG, femto ABS the first type CSG femto ABS and a second type CSG femto ABS, wherein the first type CSG femto ABS and the second type CSG femto ABS are classified by accessibility of non-member AMSs to the specific femto ABS; converting type of the specific femto ABS from the first type CSG femto ABS to the second type CSG femto ABS under a specific condition; and transmitting a signal including the converted cell type information indicating that the specific femto ABS is being operated as the second type CSG femto ABS to at least one of the one or more AMSs, wherein the specific condition comprises: reception of a ranging request message including an indicator for requesting interference mitigation from the non-member AMS of the specific femto ABS that undergoes interference by the specific femto ABS, or reception of type change request indicating that the purpose is to perform interference mitigation for the non-member AMS of the specific femto ABS that undergoes interference by the specific femto ABS, from the macro ABS.
A method for wireless communications at a first user equipment (115,115-c), UE, comprising: receiving a codepoint configuration for a point to multipoint transmission scheme that indicates a mapping between a plurality of codepoint indexes, a plurality of multicast configurations, and a plurality of unicast configurations; receiving a control message that schedules a shared data channel transmission for at least one UE of a UE group comprising a plurality of UEs including the first UE, the control message comprising a first codepoint index of the plurality of codepoint indexes; identifying a transmission configuration that is one of a first multicast configuration of the plurality of multicast configurations or a first unicast configuration of the plurality of unicast configurations to apply for receiving the shared data channel transmission based at least in part on the mapping and the first codepoint index; and receiving the shared data channel transmission in accordance with the identified transmission configuration. receiving a codepoint configuration for a point to multipoint transmission scheme that indicates a mapping between a plurality of codepoint indexes, a plurality of multicast configurations, and a plurality of unicast configurations; receiving a control message that schedules a shared data channel transmission for at least one UE of a UE group comprising a plurality of UEs including the first UE, the control message comprising a first codepoint index of the plurality of codepoint indexes; identifying a transmission configuration that is one of a first multicast configuration of the plurality of multicast configurations or a first unicast configuration of the plurality of unicast configurations to apply for receiving the shared data channel transmission based at least in part on the mapping and the first codepoint index; and receiving the shared data channel transmission in accordance with the identified transmission configuration.
A composition comprising a metal complex represented by the following formula, and an organic compound, wherein a difference between an absolute value of a lowest unoccupied molecular orbital energy level of the metal complex and an absolute value of a lowest unoccupied molecular orbital energy level of the organic compound as calculated by a computational scientific approach is less than 0.40 eV, wherein in the computational scientific approach the structure optimization of the ground state is performed by density functional method at the B3LYP level, LANL2DZ being used as basis function for the central metal atom and 6-31g* being used as basis function for atoms other than the central metal atom, using the quantum chemical calculation program Gaussian03: wherein M is a metal atom of ruthenium, rhodium, palladium, osmium, iridium, or platinum, and R 1, R 2, R 3, R 4, R 5, R 6, R 7, and R 8 each independently represent a hydrogen atom, a halogen atom, an alkyl group, an alkoxy group, an alkylthio group, an aryl group, an aryloxy group, an arylthio group, an arylalkyl group, an arylalkoxy group, an arylalkylthio group, an acyl group, an acyloxy group, an amide group, an acid imide group, an imine residue, a substituted amino group, a substituted silyl group, a substituted silyloxy group, a substituted silylthio group, a substituted silylamino group, a monovalent heterocyclic group, a heteroaryloxy group, a heteroarylthio group, an arylalkenyl group, an arylalkynyl group, a substituted carboxyl group, or a cyano group, or R 3 and R 4, or R 5 and R 6 may be bonded to form a ring, provided that at least one of R 2 and R 7 is a group represented by the following formula: m is an integer of 1 to 3, and n is an integer of 0 to 2; Z 1, Z 2, Z 3, Z 4, and Z 5 each independently represent a carbon atom or a nitrogen atom, provided that at least two of Z 1, Z 2, Z 3, Z 4, and Z 5 are nitrogen atoms; when any of Z 1, Z 2, Z 3, Z 4, and Z 5 is a carbon atom, a hydrogen atom bonded to the carbon atom may be replaced by a substituent; a moiety represented by the following formula: represents a monoanionic bidentate ligand; and R x and R y are atoms bonded to the metal atom M and each independently represent a carbon atom, an oxygen atom, or a nitrogen atom; wherein the organic compound is a compound represented by the following formula (A'): wherein Ar y1, Ar y2, and Ar y3 each independently represent an aryl group or a monovalent heterocyclic group; Z 6 to Z 8 each independently represent a carbon atom or a nitrogen atom, provided that at least two of Z 6 to Z 8 are nitrogen atoms; and when any of Z 6 to Z 8 is a carbon atom, a hydrogen atom bonded to the carbon atom may be replaced by a substituent, or a compound having a residue of the foregoing compound; and wherein the compound having a residue of a compound represented by the formula (A') is a compound having a divalent group represented by the following formula: wherein Ar x1 and Ar x2 represent an arylene group or a divalent heterocyclic group; and Ar y3 and Z 6 to Z 8 are as defined above.
A hydraulic screw tensioning device comprising a tubular body with a through opening and an annular cylinder chamber surrounding the through opening, a tubular piston movably supported in the body and connectable to a screw to be tensioned, the piston comprises a stepped outer portion and dividing the cylinder chamber into a first pressure chamber and a second pressure chamber, whereof the second pressure chamber is closed by an annular end cap secured to the body, the first pressure chamber is connectable to a pressure source for hydraulic fluid whereas the second pressure chamber is connectable to a pressure source for a compressible medium via a conduit connector mounted on the end cap, characterized in that the conduit connector for compressible medium extends radially in relation to the geometric axis (A-A) of the tubular body, and that a damage protecting structure (24,25) is provided to protect the conduit connector against accidental physical damage.