mhurhangee/ep-ind-claims huggingface dataset:
A hot water faucet having - tapping temperatures above 60°C, - a faucet body, - an outlet which is pivotable about a vertical axis and which is pivot-mounted on the faucet body by means of an insert, - having an outer envelope surrounding a water channel, - a check valve arranged in the faucet body, wherein a water supply line leads from a water heater or boiler to a water inlet opening of the check valve, - wherein the water channel is connected to an outlet opening of the check valve and the water channel is arranged from the outlet opening to a jet former on the end of the outlet, characterized in that - the water channel is provided as a flexible hose and is arranged in the outlet at a distance from the outer envelope, wherein an insulating layer of air is enclosed in the gap between the water channel and the outer envelope of the outlet, and - the hose is produced from a silicone, a polysiloxane or a polytetrafluorethylene. - tapping temperatures above 60°C, - a faucet body, - an outlet which is pivotable about a vertical axis and which is pivot-mounted on the faucet body by means of an insert, - having an outer envelope surrounding a water channel, - a check valve arranged in the faucet body, wherein a water supply line leads from a water heater or boiler to a water inlet opening of the check valve, - wherein the water channel is connected to an outlet opening of the check valve and the water channel is arranged from the outlet opening to a jet former on the end of the outlet, characterized in that - the water channel is provided as a flexible hose and is arranged in the outlet at a distance from the outer envelope, wherein an insulating layer of air is enclosed in the gap between the water channel and the outer envelope of the outlet, and - the hose is produced from a silicone, a polysiloxane or a polytetrafluorethylene.
A method for calibrating a vacuum sensor of a phacoemulsification system at an elevation, comprising: supplying a vacuum sensor to be calibrated; running the vacuum sensor to be calibrated at the elevation; determining a maximum vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; determining a range of vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; calibrating the vacuum sensor based at least in part on the maximum vacuum pressure available and the range of vacuum pressure available, characterised in that the method further comprises generating a plurality of known pressures at multiple calibration points within a known operating range, wherein the known operating range is divided into a low range, a middle range, and a high range, wherein the middle range comprises intervals between the number of known pressures that are smaller than the intervals between the number of known pressures within the low range and the high range; and supplying the plurality of known pressures to the vacuum sensor to be calibrated to produce a plurality of measured pressure readings and the known pressures, wherein calibrating the vacuum sensor is also based on a mathematical relationship between the measured pressure readings and the known pressures. supplying a vacuum sensor to be calibrated; running the vacuum sensor to be calibrated at the elevation; determining a maximum vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; determining a range of vacuum pressure that the phacoemulsification system is able to achieve from running the vacuum sensor at the elevation; calibrating the vacuum sensor based at least in part on the maximum vacuum pressure available and the range of vacuum pressure available, characterised in that the method further comprises generating a plurality of known pressures at multiple calibration points within a known operating range, wherein the known operating range is divided into a low range, a middle range, and a high range, wherein the middle range comprises intervals between the number of known pressures that are smaller than the intervals between the number of known pressures within the low range and the high range; and supplying the plurality of known pressures to the vacuum sensor to be calibrated to produce a plurality of measured pressure readings and the known pressures, wherein calibrating the vacuum sensor is also based on a mathematical relationship between the measured pressure readings and the known pressures.
A grease composition comprising base oil and as thickener calcium complex soap and lithium soap, the grease composition being characterised in that a C18-22 straight chain, substituted or unsubstituted higher fatty acid, a substituted or unsubstituted aromatic monocarboxylic acid having a benzene ring and a C2-4 straight-chain saturated lower carboxylic acid are used as carboxylic acids constituting the calcium complex soap and lithium soap, wherein, based on 100 parts by mass of the total blended amount of the grease composition, 3 to 25 parts by mass of the straight-chain higher fatty acid, 0.5 to 3 parts by mass of the aromatic monocarboxylic acid and 1 to 5 parts by mass of the straight-chain saturated lower fatty acid are added as base starting materials, and wherein the mass ratio (Li/Ca) of the lithium metal content to the calcium metal content in the thickener starting material is 1 part per 100 to 5 parts per 100.
A busbar system with an elongated carrier assembly and a line holding system extending along the carrier assembly, which holds lines (5a, 5b) for a current supply and/or signal transmission in such a manner that the lines (5a, 5b) can be contacted by units to be connected to the busbar system, characterized in that the lines (5a, 5b) are designed as cables and that the line holding system has at least two different cross-sectional configurations (A, B), which in each case make possible the contacting of the lines (5a, 5b) from different directions, wherein two successive different cross-sectional configurations (A, B) are connected to one another by a stabilization region, the cross section of which is such that the lines (5a, 5b) are supported substantially over its entire circumference.
A method of collecting application communication statistics, the method comprising: determining whether a device is in a foreground state or a background state based on the presence or absence of one or more inputs via a user interface; executing a plurality of applications configured to communicate with a communication network; collecting one or more communication statistics, for one or more of the plurality of applications, when |the device is in the background state; and when the device is in the foreground state, either: collecting, separately from the communication statistics collected when the device is in the background state, one or more communication statistics; or refraining from collecting one or more communication statistics; characterized by receiving an instruction from a server (110, 111) connected to communication network, the instruction being based on statistics received from the device; and delaying one or more communications in accordance with the instruction, the instruction comprising at least one of: a list of applications to include and/or exclude when delaying the communications; or a list of application socket operations to include and/or exclude when delaying the communications. determining whether a device is in a foreground state or a background state based on the presence or absence of one or more inputs via a user interface; executing a plurality of applications configured to communicate with a communication network; collecting one or more communication statistics, for one or more of the plurality of applications, when |the device is in the background state; and when the device is in the foreground state, either: collecting, separately from the communication statistics collected when the device is in the background state, one or more communication statistics; or refraining from collecting one or more communication statistics; characterized by receiving an instruction from a server (110, 111) connected to communication network, the instruction being based on statistics received from the device; and collecting, separately from the communication statistics collected when the device is in the background state, one or more communication statistics; or refraining from collecting one or more communication statistics; characterized by receiving an instruction from a server (110, 111) connected to communication network, the instruction being based on statistics received from the device; and delaying one or more communications in accordance with the instruction, the instruction comprising at least one of: a list of applications to include and/or exclude when delaying the communications; or a list of application socket operations to include and/or exclude when delaying the communications. a list of applications to include and/or exclude when delaying the communications; or a list of application socket operations to include and/or exclude when delaying the communications.
A method of determining a phase line on which a transmitter is transmitting, comprising: receiving, by a receiver communicatively coupled to a plurality of power distribution phase lines, a signal comprising a plurality of different frequencies on each phase line of the plurality of phase lines, the plurality of phase lines composing a plurality of feeder lines, each feeder line of the plurality of feeder lines comprising a subset of phase lines of the plurality of phase lines, the plurality of different frequencies including a plurality of tone frequencies, and the signal being generated by a transmitter that transmits the signal on a particular phase line of the plurality of phase lines; determining, for each respective phase line of the plurality of phase lines, a received signal strength of each tone frequency of the plurality of tone frequencies; and based on only those signals received by the receiver and based on the received signal strength of each tone frequency of the plurality of tone frequencies on each phase line of the plurality of phase lines, identifying the transmitter as being coupled to the particular phase line of the plurality of phase lines. receiving, by a receiver communicatively coupled to a plurality of power distribution phase lines, a signal comprising a plurality of different frequencies on each phase line of the plurality of phase lines, the plurality of phase lines composing a plurality of feeder lines, each feeder line of the plurality of feeder lines comprising a subset of phase lines of the plurality of phase lines, the plurality of different frequencies including a plurality of tone frequencies, and the signal being generated by a transmitter that transmits the signal on a particular phase line of the plurality of phase lines; determining, for each respective phase line of the plurality of phase lines, a received signal strength of each tone frequency of the plurality of tone frequencies; and based on only those signals received by the receiver and based on the received signal strength of each tone frequency of the plurality of tone frequencies on each phase line of the plurality of phase lines, identifying the transmitter as being coupled to the particular phase line of the plurality of phase lines.
A lighting system with at least one motion detector, a control unit and at least one light source, wherein: - the motion detector has at least one sensor, which is configured to receive electromagnetic waves and/or sound waves and to differentiate with respect to their angles of incidence; - the motion detector is functionally connected to the control unit, which is configured to determine from the different angles of incidence a parameter reflecting a change in position; and - the motion detector is configured to control the at least one light source depending on the parameter; characterized in that - the motion detector controls the at least one light source depending on the parameter, so that a lighting is activated/deactivated for a position of the object extrapolated into the future. - the motion detector has at least one sensor, which is configured to receive electromagnetic waves and/or sound waves and to differentiate with respect to their angles of incidence; - the motion detector is functionally connected to the control unit, which is configured to determine from the different angles of incidence a parameter reflecting a change in position; and - the motion detector is configured to control the at least one light source depending on the parameter; characterized in that - the motion detector controls the at least one light source depending on the parameter, so that a lighting is activated/deactivated for a position of the object extrapolated into the future.
A mesh for modulating proteases in a negative pressure therapy system, comprising: a sacrificial substrate including a plurality of collagen fibers (126, 127, 226, 227, 326, 327) reinforced with a supporting material and intersecting with each other to form a network of collagen fibers having a plurality openings (130, 230, 330); and wherein the average area of each of the plurality of openings (130, 230, 330) is between 0.2 mm 2 and 20 mm 2 to permit the flow of negative pressure through the mesh. a sacrificial substrate including a plurality of collagen fibers (126, 127, 226, 227, 326, 327) reinforced with a supporting material and intersecting with each other to form a network of collagen fibers having a plurality openings (130, 230, 330); and wherein the average area of each of the plurality of openings (130, 230, 330) is between 0.2 mm 2 and 20 mm 2 to permit the flow of negative pressure through the mesh.
A power take-off device connectable to a tractor provided with a power take-off, which comprises a support frame fixable to a tractor and suitable for rotatably supporting at least an input shaft suitable for taking drive from the tractor power take-off and at least an output shaft suitable for activating at least a work tool, at least a second output shaft (40, 60) being provided, parallel to the first output shaft and suitable for activating at least a further work tool, and drive transmission means (24-27, 40,41,51,52, 61,62,71,72) interposed between the input shaft and the second output shaft (40, 60), wherein the transmission means comprise at least a drive pulley keyed on the input shaft and at least a driven pulley (41,42,61,62), characterised by comprising at least a pair of the drive pulleys (24,25;26,27) connected, by means of respective flexible organs (51,52;71,72) to a respective pair of the driven pulleys (41,42;61,62), the driven pulleys (41,42;61,62) of the pair being made selectively solid in rotation with the second output shaft (40, 60) via selection means (43,63).
A lubrication system for a rotating component, comprising: a primary lubrication system comprising a lubricant pump and continuously supplying a lubricant to the rotating component; and a secondary lubrication system comprising a lubricant reservoir that co-rotates with the rotating component and receives lubricant from the primary lubrication system and discharges a metered quantity of the lubricant through an orifice disposed in the lubricant reservoir, wherein when the primary lubrication system fails to supply the lubricant to the rotating component, a centrifugal force generated by rotation of the rotating component and acting on the lubricant in the co-rotating lubricant reservoir pushes the metered quantity through the orifice and supplies the metered quantity of the lubricant to the rotating component; and characterized in that the rotating component is a hollow shaft and the secondary lubrication system is arranged inside the rotating component. a primary lubrication system comprising a lubricant pump and continuously supplying a lubricant to the rotating component; and a secondary lubrication system comprising a lubricant reservoir that co-rotates with the rotating component and receives lubricant from the primary lubrication system and discharges a metered quantity of the lubricant through an orifice disposed in the lubricant reservoir, wherein when the primary lubrication system fails to supply the lubricant to the rotating component, a centrifugal force generated by rotation of the rotating component and acting on the lubricant in the co-rotating lubricant reservoir pushes the metered quantity through the orifice and supplies the metered quantity of the lubricant to the rotating component; and characterized in that the rotating component is a hollow shaft and the secondary lubrication system is arranged inside the rotating component.
An electronic device for a vehicle, the electronic device comprising: a sensor connected to a plurality of displays, and a processor connected to the sensor and the plurality of displays, wherein the processor is configured to, when information indicating that an error occurs in a first display among the plurality of displays is obtained from the sensor, output first information to be output through the first display through a display having higher priority among remaining displays other than the first display, wherein the processor is configured to output the first information through the display having higher priority in a pop-up form corresponding to a driving situation, and wherein the priority of the remaining displays other than the first display is higher for a display closer to the field of vision of the driver. a sensor connected to a plurality of displays, and a processor connected to the sensor and the plurality of displays, wherein the processor is configured to, when information indicating that an error occurs in a first display among the plurality of displays is obtained from the sensor, output first information to be output through the first display through a display having higher priority among remaining displays other than the first display, wherein the processor is configured to output the first information through the display having higher priority in a pop-up form corresponding to a driving situation, and wherein the priority of the remaining displays other than the first display is higher for a display closer to the field of vision of the driver.
A method for fabricating an LED light bar, comprising: providing a transparent base, wherein at least one framework region for fixing LED chips is arranged on the transparent base; arranging one or more LED chips on the at least one framework region by a die bonding process, wherein LED chips on a same framework region form an LED chip column; connecting, in a same LED chip column, a positive electrode of an LED chip to a negative electrode of an LED chip adjacent to the LED chip by a wire bonding process; and covering, by a press molding process, an upper surface and a lower surface of the transparent base where the LED chips are arranged with a packaging adhesive mixed with fluorescent powder, and filling up, by the press molding process, the milling groove with the packaging adhesive under pressure, characterized in that at least one milling groove parallel to the framework region is arranged at each of two sides of each framework region, and the milling groove penetrates through an upper surface and a lower surface of the transparent base, and in that the method further comprises cutting the transparent base along the milling groove after the packaging adhesive is solidified, to obtain an LED light bar surrounded by the adhesive. providing a transparent base, wherein at least one framework region for fixing LED chips is arranged on the transparent base; arranging one or more LED chips on the at least one framework region by a die bonding process, wherein LED chips on a same framework region form an LED chip column; connecting, in a same LED chip column, a positive electrode of an LED chip to a negative electrode of an LED chip adjacent to the LED chip by a wire bonding process; and covering, by a press molding process, an upper surface and a lower surface of the transparent base where the LED chips are arranged with a packaging adhesive mixed with fluorescent powder, and filling up, by the press molding process, the milling groove with the packaging adhesive under pressure, characterized in that at least one milling groove parallel to the framework region is arranged at each of two sides of each framework region, and the milling groove penetrates through an upper surface and a lower surface of the transparent base, and in that the method further comprises cutting the transparent base along the milling groove after the packaging adhesive is solidified, to obtain an LED light bar surrounded by the adhesive.
A tissue-removing catheter for removing tissue from a body lumen having a longitudinal axis, the tissue-removing catheter comprising: a catheter body configured for insertion in the body lumen, the catheter body having a proximal end, a distal end, a longitudinal axis extending between the proximal and distal ends (12a, 12b), wherein the catheter body includes a first longitudinal body portion adjacent the distal end, and a second longitudinal body portion proximal of the first longitudinal body portion, the first longitudinal body portion defining a side opening; a tissue-removing element disposed in the first longitudinal body portion of the catheter body, wherein the tissue-removing element is extendable outside the first longitudinal body portion through the side opening; and a tissue-removing driveshaft extending longitudinally within the first and second longitudinal body portions (46, 48) of the catheter body and configured for rotation about its longitudinal axis relative to the catheter body, the tissue-removing driveshaft operatively connected to the tissue-removing element to impart rotation to the tissue-removing element relative to the catheter body, characterised in that the first longitudinal body portion is rotatable about an axis extending along its length and relative to the second longitudinal body portion to adjust the angular position of the first longitudinal body portion and the side opening relative to the second longitudinal body portion. a catheter body configured for insertion in the body lumen, the catheter body having a proximal end, a distal end, a longitudinal axis extending between the proximal and distal ends (12a, 12b), wherein the catheter body includes a first longitudinal body portion adjacent the distal end, and a second longitudinal body portion proximal of the first longitudinal body portion, the first longitudinal body portion defining a side opening; a tissue-removing element disposed in the first longitudinal body portion of the catheter body, wherein the tissue-removing element is extendable outside the first longitudinal body portion through the side opening; and a tissue-removing driveshaft extending longitudinally within the first and second longitudinal body portions (46, 48) of the catheter body and configured for rotation about its longitudinal axis relative to the catheter body, the tissue-removing driveshaft operatively connected to the tissue-removing element to impart rotation to the tissue-removing element relative to the catheter body, characterised in that the first longitudinal body portion is rotatable about an axis extending along its length and relative to the second longitudinal body portion to adjust the angular position of the first longitudinal body portion and the side opening relative to the second longitudinal body portion.