mhurhangee/ep-ind-claims huggingface dataset:
A connection device for accommodating a plug, the plug including a first portion and a second portion having a diameter that is smaller than a diameter of the first portion, the connection device comprising: a housing including a first face comprising an opening to a connection hole, into which the plug can be introduced, and a second face that adjoins the first face; wherein the connection hole extends to the inside of the housing from the first face; the connection hole has a first hole portion for accommodating the first portion of the plug and a second hole portion for accommodating the second portion of the plug, the second hole portion having a diameter that is smaller than a diameter of the first hole portion; whereinthe opening extends from the first face into the second face to expose the first hole portion of the connection hole on the second face; characterized in that the opening exposes the first hole portion up to the second hole portion; and a sealing member is arranged on an outer peripheral surface of the housing to surround a region where the opening is formed. a housing including a first face comprising an opening to a connection hole, into which the plug can be introduced, and a second face that adjoins the first face; wherein the connection hole extends to the inside of the housing from the first face; the connection hole has a first hole portion for accommodating the first portion of the plug and a second hole portion for accommodating the second portion of the plug, the second hole portion having a diameter that is smaller than a diameter of the first hole portion; whereinthe opening extends from the first face into the second face to expose the first hole portion of the connection hole on the second face; characterized in that the opening exposes the first hole portion up to the second hole portion; and a sealing member is arranged on an outer peripheral surface of the housing to surround a region where the opening is formed.
A touch input device comprising: a first panel configured to be touched by an input tool having magnetic properties; a second panel configured to generate a magnetic field; and a control unit configured to control the second panel to generate the magnetic field based on the touch location and moving direction of the input tool, as the input tool touches and is moved along the first panel, wherein the control unit is configured to control the second panel to generate the magnetic field such that it has the same polarity as a polarity of the input tool in a first portion of the second panel that is in the moving direction of the input tool, and a polarity opposite to a polarity of the input tool, in a second portion of the second panel that is in the opposite direction of the moving direction of the input tool. a first panel configured to be touched by an input tool having magnetic properties; a second panel configured to generate a magnetic field; and a control unit configured to control the second panel to generate the magnetic field based on the touch location and moving direction of the input tool, as the input tool touches and is moved along the first panel, wherein the control unit is configured to control the second panel to generate the magnetic field such that it has the same polarity as a polarity of the input tool in a first portion of the second panel that is in the moving direction of the input tool, and a polarity opposite to a polarity of the input tool, in a second portion of the second panel that is in the opposite direction of the moving direction of the input tool.
Lower nozzle for use in a nuclear fuel assembly, of the type having an axis (A-A) and comprising a transverse lower tie plate for channelling the coolant through the lower tie plate and a tubular skirt extending axially from the periphery of the lower tie plate, the skirt delimiting an axial housing closed at one end by the lower tie plate and open at the opposite end, a debris filter configured for axial insertion in the housing and snap-fit springs for retaining the debris filter in the housing after insertion, characterized in that the snap-fit springs are configured to shift the debris filter axially towards the lower tie plate.
Vehicle, in particular rail vehicle, wherein the vehicle has at least one bidet, wherein the bidet and a toilet form an integrated bidet toilet unit, in which at least one bidet nozzle, which guarantees the bidet function and with which the bidet toilet unit can be operated as a bidet, and at least one flushing nozzle, which guarantees the flushing function and with which the bidet toilet unit can be operated as a toilet, are integrated in the same toilet bowl, wherein the bidet is connected to a gravity water system and is gravity fed with water from said system, wherein - the gravity water system exhibits a water tank arranged spatially above the bidet, which water tank is connected to the bidet via a water pipe and - the water pipe between the bidet and the water tank is heatable or heated, at least in sections, by means of a pipe trace heating system and creates a hot water pipe, and wherein - the hot water pipe is fitted with a bidet actuating valve, with which the bidet function can be activated by valve actuation, - wherein the bidet actuating valve releases a predetermined quantity of water per actuation and - the length and cross section of the hot water pipe, the quantity of water released by the bidet actuating valve per actuation and the heat output of the pipe trace heating system are measured in such a manner that at least two actuations of the bidet function with warmed water are possible. - the gravity water system exhibits a water tank arranged spatially above the bidet, which water tank is connected to the bidet via a water pipe and - the water pipe between the bidet and the water tank is heatable or heated, at least in sections, by means of a pipe trace heating system and creates a hot water pipe, and wherein - the hot water pipe is fitted with a bidet actuating valve, with which the bidet function can be activated by valve actuation, - wherein the bidet actuating valve releases a predetermined quantity of water per actuation and - the length and cross section of the hot water pipe, the quantity of water released by the bidet actuating valve per actuation and the heat output of the pipe trace heating system are measured in such a manner that at least two actuations of the bidet function with warmed water are possible.
A method of operating a safety vacuum release system with a controller for a pump including a motor, the method comprising: measuring an actual power consumption of the motor necessary to pump water and overcome losses; calculating an absolute power variation based on the actual power consumption; incrementing a dynamic counter value if the absolute power variation is negative; calculating a relative power variation based on the actual power consumption; identifying a dynamic suction blockage if at least one of the dynamic counter value exceeds a dynamic counter threshold value and the relative power variation is below a negative threshold; and triggering the safety vacuum release system when the dynamic suction blockage is identified in order to shut down the pump immediately. measuring an actual power consumption of the motor necessary to pump water and overcome losses; calculating an absolute power variation based on the actual power consumption; incrementing a dynamic counter value if the absolute power variation is negative; calculating a relative power variation based on the actual power consumption; identifying a dynamic suction blockage if at least one of the dynamic counter value exceeds a dynamic counter threshold value and the relative power variation is below a negative threshold; and triggering the safety vacuum release system when the dynamic suction blockage is identified in order to shut down the pump immediately.
A gel composition comprising a polyoxyalkylene alkyl ether and water, the polyoxyalkylene alkyl ether being represented by general formula: R-O- m - n -H wherein R is a linear alkyl group having 12 to 22 carbon atoms, PO represents an oxypropylene group, EO represents an oxyethylene group, m and n each represent an average number of moles added, m is a number of 1 to 20, and n is a number of 1 to 80, a sum of m and n (m + n) is 20 to 100, PO and EO being added in a configuration of block addition, and wherein the water is contained in an amount of 35% to 75% by mass. wherein R is a linear alkyl group having 12 to 22 carbon atoms, PO represents an oxypropylene group, EO represents an oxyethylene group, m and n each represent an average number of moles added, m is a number of 1 to 20, and n is a number of 1 to 80, a sum of m and n (m + n) is 20 to 100, PO and EO being added in a configuration of block addition, and wherein the water is contained in an amount of 35% to 75% by mass.
A method of minimizing power consumption in a device, the method comprising: providing a plurality of circuit blocks (116, 130) having circuits for performing logic functions, wherein each circuit block consumes power in a static state; coupling one of a plurality of operating voltages (V CC-A, V CC-C) to each circuit block of the plurality of circuit blocks (116, 130); enabling a reduction of power consumed by a first set of circuit blocks in a power down mode by way of a first power reduction signal (PC-A) which triggers the power down mode and first and second enable signals (316, 410, 510. 605), wherein a particular one of the first set of circuit blocks is disabled if a corresponding one of the first and second enable signals indicates that the particular one of the first set of circuit blocks is to selectively participate in the power down mode, and the first power reduction signal specifies that the first set of circuit blocks is to be in the power down mode; and enabling a reduction of power consumed by a second set of circuit blocks by way of a second power reduction signal (PC-C) and third and fourth enable signals (316, 410, 510. 605), wherein a particular one of the second set of circuit blocks is disabled if a corresponding one of the third and fourth enable signals indicates that the particular one of the second set of circuit blocks is to selectively participate in the power down mode, and the second power reduction signal specifies that the second set of circuit blocks is to be in the power down mode. providing a plurality of circuit blocks (116, 130) having circuits for performing logic functions, wherein each circuit block consumes power in a static state; coupling one of a plurality of operating voltages (V CC-A, V CC-C) to each circuit block of the plurality of circuit blocks (116, 130); enabling a reduction of power consumed by a first set of circuit blocks in a power down mode by way of a first power reduction signal (PC-A) which triggers the power down mode and first and second enable signals (316, 410, 510. 605), wherein a particular one of the first set of circuit blocks is disabled if a corresponding one of the first and second enable signals indicates that the particular one of the first set of circuit blocks is to selectively participate in the power down mode, and the first power reduction signal specifies that the first set of circuit blocks is to be in the power down mode; and enabling a reduction of power consumed by a second set of circuit blocks by way of a second power reduction signal (PC-C) and third and fourth enable signals (316, 410, 510. 605), wherein a particular one of the second set of circuit blocks is disabled if a corresponding one of the third and fourth enable signals indicates that the particular one of the second set of circuit blocks is to selectively participate in the power down mode, and the second power reduction signal specifies that the second set of circuit blocks is to be in the power down mode.
A transmitting apparatus comprising: a mapper which, in operation, maps downlink control information to a first search space or to a second search space, the first search space including one or a plurality of first physical downlink control channel PDCCH candidates for each of a plurality of aggregation levels, the second search space including one or a plurality of second PDCCH candidates for at least one of the plurality of aggregation levels, each of the first and the second PDCCH candidates being composed of a control channel element CCE or a plurality of aggregated CCEs of its corresponding aggregation level, wherein the candidates of the second search space are non-overlapping the candidates of the first search space on a same aggregation level; and a transmitter which, in operation, transmits a signal including the downlink control information that is mapped to the first search space or the second search space, characterized in that the second search space further includes at least one other second PDCCH candidate for an aggregation level higher than any one of the plurality of aggregation levels. a mapper which, in operation, maps downlink control information to a first search space or to a second search space, the first search space including one or a plurality of first physical downlink control channel PDCCH candidates for each of a plurality of aggregation levels, the second search space including one or a plurality of second PDCCH candidates for at least one of the plurality of aggregation levels, each of the first and the second PDCCH candidates being composed of a control channel element CCE or a plurality of aggregated CCEs of its corresponding aggregation level, wherein the candidates of the second search space are non-overlapping the candidates of the first search space on a same aggregation level; and a transmitter which, in operation, transmits a signal including the downlink control information that is mapped to the first search space or the second search space, characterized in that the second search space further includes at least one other second PDCCH candidate for an aggregation level higher than any one of the plurality of aggregation levels.
Tunnel kiln for heat treatment of products, comprising the following features: 1.1 A tunnel-like kiln chamber which extends from a first end to a second end of the kiln chamber, the kiln chamber being limited on the upper side by a kiln ceiling and on the side by kiln walls (4, 5); 1.2 kiln cars which can be moved from the first end to the second end along a transport direction through the kiln chamber and on which products to be treated with heat in the kiln chamber can be transported; 1.3 kiln furniture for receiving the products, the kiln furniture being arranged on the kiln cars; 1.4 gas outlets, via which gas present in the kiln chamber can be discharged from the kiln chamber; 1.5 gas inlets (17, 18, 19) via which gas can be introduced into the kiln chamber; and 1.6 means for heating the kiln chamber; wherein 1.7 gas located in the region of the kiln ceiling can be discharged from the kiln chamber via the gas outlets; 1.8 gas in the region of the kiln walls (4, 5) can be introduced into the kiln chamber (4, 5) via the gas inlets (17, 18, 19); wherein 1.9 the kiln furniture being arranged on the kiln cars with the formation of at least one vertical gap between the kiln furniture; wherein 1.10 the means for heating the kiln chamber are electric heating elements; wherein 1.11 gas which can be introduced into the kiln chamber via the gas inlets (17, 18, 19) can be heated by the heating elements before the gas is introduced into the kiln chamber; and wherein 1.12 gas can be introduced into the kiln chamber at different heights via the gas inlets (17, 18, 19). 1.1 A tunnel-like kiln chamber which extends from a first end to a second end of the kiln chamber, the kiln chamber being limited on the upper side by a kiln ceiling and on the side by kiln walls (4, 5); 1.2 kiln cars which can be moved from the first end to the second end along a transport direction through the kiln chamber and on which products to be treated with heat in the kiln chamber can be transported; 1.3 kiln furniture for receiving the products, the kiln furniture being arranged on the kiln cars; 1.4 gas outlets, via which gas present in the kiln chamber can be discharged from the kiln chamber; 1.5 gas inlets (17, 18, 19) via which gas can be introduced into the kiln chamber; and 1.6 means for heating the kiln chamber; wherein 1.7 gas located in the region of the kiln ceiling can be discharged from the kiln chamber via the gas outlets; 1.8 gas in the region of the kiln walls (4, 5) can be introduced into the kiln chamber (4, 5) via the gas inlets (17, 18, 19); wherein 1.9 the kiln furniture being arranged on the kiln cars with the formation of at least one vertical gap between the kiln furniture; wherein 1.10 the means for heating the kiln chamber are electric heating elements; wherein 1.11 gas which can be introduced into the kiln chamber via the gas inlets (17, 18, 19) can be heated by the heating elements before the gas is introduced into the kiln chamber; and wherein 1.12 gas can be introduced into the kiln chamber at different heights via the gas inlets (17, 18, 19).
A neplanocin compound of one of the following formulae: L-isoneplanocin analogue, D-3-Deazaisoneplanocin analogue, L-3-Deazaisoneplanocin analogue, or pharmaceutically-acceptable salts thereof, wherein R is a hydroxyl group, halogen, or C 1 -C 4 alkyl optionally substituted with a hydroxyl group, R 2 ' is a hydrogen or a hydroxyl group, halogen, or C 1 -C 4 alkyl optionally substituted with a hydroxyl group, R 3 ' is a hydrogen or a hydroxyl group, halogen, or C 1 -C 4 alkyl optionally substituted with a hydroxyl group, R 6 ' is a hydrogen or halogen, W is a hydrogen or a halogen, X is NH 2, NHR", NR"R', NHOH, or hydrogen (wherein the R" and R' are alkyl, aryl or arylalkyl), Y is a hydrogen, a hydroxyl group, CH 2 OH, CH 2 NH 2, NHR", NR"R', wherein the R" and R' are alkyl, aryl or arylalkyl, CH 2 X (wherein X is a halogen), or a C 1 -C 4 alkyl optionally substituted with a hydroxyl group, Y' is a hydrogen, CH 2 OH, CH 2 NH 2, NHR", NR"R', wherein the R" and R' are alkyl, aryl or arylalkyl, CH 2 X (wherein X is a halogen), or a C 1 -C 4 alkyl optionally substituted with a hydroxyl group, and Z is a hydrogen, halogen, alkyl or substituted alkyl, or cyano. R is a hydroxyl group, halogen, or C 1 -C 4 alkyl optionally substituted with a hydroxyl group, R 2 ' is a hydrogen or a hydroxyl group, halogen, or C 1 -C 4 alkyl optionally substituted with a hydroxyl group, R 3 ' is a hydrogen or a hydroxyl group, halogen, or C 1 -C 4 alkyl optionally substituted with a hydroxyl group, R 6 ' is a hydrogen or halogen, W is a hydrogen or a halogen, X is NH 2, NHR", NR"R', NHOH, or hydrogen (wherein the R" and R' are alkyl, aryl or arylalkyl), Y is a hydrogen, a hydroxyl group, CH 2 OH, CH 2 NH 2, NHR", NR"R', wherein the R" and R' are alkyl, aryl or arylalkyl, CH 2 X (wherein X is a halogen), or a C 1 -C 4 alkyl optionally substituted with a hydroxyl group, Y' is a hydrogen, CH 2 OH, CH 2 NH 2, NHR", NR"R', wherein the R" and R' are alkyl, aryl or arylalkyl, CH 2 X (wherein X is a halogen), or a C 1 -C 4 alkyl optionally substituted with a hydroxyl group, and Z is a hydrogen, halogen, alkyl or substituted alkyl, or cyano.
A damper seal for a vane assembly of a gas turbine engine, comprising: a friction damper portion having a surface extending in an axial direction and structured to contact, when in use, a plurality of segments of said vane assembly to provide friction damping of said plurality of segments; and an air seal portion, extending in an axial direction from the friction damper portion and compressible in the axial direction to seal, when in use, against a gas turbine engine component that is spaced apart from said segments in an axial direction, wherein said air seal portion is integral with said friction damper portion. a friction damper portion having a surface extending in an axial direction and structured to contact, when in use, a plurality of segments of said vane assembly to provide friction damping of said plurality of segments; and an air seal portion, extending in an axial direction from the friction damper portion and compressible in the axial direction to seal, when in use, against a gas turbine engine component that is spaced apart from said segments in an axial direction, wherein said air seal portion is integral with said friction damper portion.
A method for climate control in an operator's cabin of a construction machine, in particular a crane, wherein the actual temperature of the air in the cabin is detected by means of at least one sensor, and characteristics - in particular the volume flow, direction and/or temperature - of the air supplied to the cabin are automatically controlled on the basis of the detected actual temperature and a particular target temperature, wherein the target temperature is automatically determined on the basis of at least one variable which affects the thermal comfort of the cabin personnel, and wherein at least one of the following parameters is additionally taken into account when controlling the characteristics, in particular the volume flow, direction and/or temperature, of the air supplied to the cabin, in particular wherein values for it/them are detected by means of at least one sensor inside and/or outside the cabin or are predefined by the user: - at least one cabin pane misting up; - the CO 2 content in the cabin air; - the content of pollutants in the cabin air or outside air; - cooling the air in the cabin as quickly as possible; - heating the air in the cabin as quickly as possible; wherein at least one of these parameters is ranked higher or lower than the target temperature when controlling the characteristics, in particular the volume flow, direction and/or temperature, of the air supplied, characterised in that instructions for how the target temperature or target state of one of the parameters can be achieved as quickly as possible are indicated to the cabin personnel on a display. - at least one cabin pane misting up; - the CO 2 content in the cabin air; - the content of pollutants in the cabin air or outside air; - cooling the air in the cabin as quickly as possible; - heating the air in the cabin as quickly as possible;