mhurhangee/ep-ind-claims huggingface dataset:
Revolving door comprising a wall or walls (11, 12) in which openings (13, 14) for inlet and outlet of persons and/or objects are provided, and rotatable door wings that during use are rotatable around an imaginary central vertical axis in a passage area surrounded by the wall or walls (11, 12), wherein a carrier or carriers are provided for the door wings, wherein each door wing (2, 3) has a carrier dedicated to such door wing (2, 3), characterized in that said carrier comprises a horizontal bar and a vertical bar connected to said horizontal bar, wherein each door wing has two door wing parts (2, 3) that are positioned on opposite sides of the vertical bar of the carrier that supports the concerning door wing.
Hand-held machine tool which is able to be operated in at least one screwdriver mode and has a housing in which at least one drive motor for driving an assigned tool receptacle is disposed, wherein provided is a depth stop unit (140, 540) for delimiting an adjustable screw-in depth in the screwdriver mode, and wherein the depth stop unit (140, 540) has a depth adjustment sleeve as well as the tool receptacle and by way of an adjustment device (149; 549) is adjustable in a screwing-in position for a screwing-in procedure, and in an unscrewing position for an unscrewing procedure, characterized in that the adjustment device (149, 549) has at least two impingement webs (221, 222) which are mutually spaced apart in the axial direction of the depth stop unit (140, 540), wherein the two impingement webs (221, 222) in the circumferential direction of the depth stop unit form in each case one receptacle (214, 216; 622, 624), and wherein a receptacle assigned to the screwing-in position is disposed closer to a free end of the depth stop unit than a receptacle assigned to the unscrewing position.
Adapter for a diaphragm seal, having - a first coupling region (5.1) for fluid-tight coupling to a process connection, - a second coupling region (5.2) for fluid-tight coupling to a diaphragm seal, and - an adapter membrane, which is arranged in a fluid-tight manner at a transition between the first coupling region (5.1) and the second coupling region (5.2), has an undulating cross section and is designed to come into abutment with a diaphragm-seal membrane when the diaphragm seal is in an installed state. - a first coupling region (5.1) for fluid-tight coupling to a process connection, - a second coupling region (5.2) for fluid-tight coupling to a diaphragm seal, and - an adapter membrane, which is arranged in a fluid-tight manner at a transition between the first coupling region (5.1) and the second coupling region (5.2), has an undulating cross section and is designed to come into abutment with a diaphragm-seal membrane when the diaphragm seal is in an installed state.
Testing machine for measuring mechanical characteristics of an elongated material specimen having two ends (201, 202) and having equal cross-section across its length, the testing machine comprising: a first fastening device adapted to receive the first end of the specimen; a second fastening device adapted to receive the second end of the specimen; a drive being coupled to at least one of the fastening devices (110, 120) to allow the application of a torque that leads to torsion of the specimen; a first sensor adapted to measure a torsion angle (φ) applicable to the specimen between the first fastening device and the second fastening device, the first sensor providing torsion angle data (data φ) that represents the torsion angle (φ); a second sensor adapted to measure the torque, the second sensor providing torque data (data M) that represents the torque; a data processing unit adapted to process the torsion angle data (data φ) and the torque data (data M) into stress-strain data (sigma-epsilon, α-ε), by using a geometry factor that depends on the cross-section of the specimen, characterized in that the second fastening device is dimensioned such that rotation is possible when the specimen is a combination of specimens (200-A, 200-B, 200-C) that are arranged in parallel, wherein the combination of specimens is a specimen arrangement in which the specimens are combined by a common carrier, wherein the inter-specimen distance is selected such that the testing machine can apply the torque to either specimen without touching the others. a first fastening device adapted to receive the first end of the specimen; a second fastening device adapted to receive the second end of the specimen; a drive being coupled to at least one of the fastening devices (110, 120) to allow the application of a torque that leads to torsion of the specimen; a first sensor adapted to measure a torsion angle (φ) applicable to the specimen between the first fastening device and the second fastening device, the first sensor providing torsion angle data (data φ) that represents the torsion angle (φ); a second sensor adapted to measure the torque, the second sensor providing torque data (data M) that represents the torque; a data processing unit adapted to process the torsion angle data (data φ) and the torque data (data M) into stress-strain data (sigma-epsilon, α-ε), by using a geometry factor that depends on the cross-section of the specimen, characterized in that the second fastening device is dimensioned such that rotation is possible when the specimen is a combination of specimens (200-A, 200-B, 200-C) that are arranged in parallel, wherein the combination of specimens is a specimen arrangement in which the specimens are combined by a common carrier, wherein the inter-specimen distance is selected such that the testing machine can apply the torque to either specimen without touching the others.
A cyclone dust collecting device, comprising: a dust collecting box comprising a dust entrance and a cavity formed by extension in a first direction, wherein the dust entrance communicates with a dust exhaust channel of a host machine, and a dust exhaust airflow enters the cavity through the dust entrance; and a separator comprising a dust inlet and a cyclone tube, wherein the dust inlet communicates with the dust entrance, the dust inlet is configured to guide the dust exhaust airflow into the cyclone tube, the cyclone tube extends in a second direction and is at least partially disposed in the dust collecting box, the cyclone tube comprises a dust outlet and an air outlet disposed on the cyclone tube, the dust outlet is located in the cavity, and the air outlet communicates with an outside of the dust collecting box; wherein the air outlet is lower than the dust inlet, characterized in that the second direction obliquely intersects the first direction such that the dust outlet is higher than the dust inlet. a dust collecting box comprising a dust entrance and a cavity formed by extension in a first direction, wherein the dust entrance communicates with a dust exhaust channel of a host machine, and a dust exhaust airflow enters the cavity through the dust entrance; and a separator comprising a dust inlet and a cyclone tube, wherein the dust inlet communicates with the dust entrance, the dust inlet is configured to guide the dust exhaust airflow into the cyclone tube, the cyclone tube extends in a second direction and is at least partially disposed in the dust collecting box, the cyclone tube comprises a dust outlet and an air outlet disposed on the cyclone tube, the dust outlet is located in the cavity, and the air outlet communicates with an outside of the dust collecting box; wherein the air outlet is lower than the dust inlet, characterized in that the second direction obliquely intersects the first direction such that the dust outlet is higher than the dust inlet.
A graphite sheet having a thickness in a range of 2.1 μm or less and 20 nm or more, an area of 9 mm 2 or more, and a carrier mobility along the a-b plane direction at 25°C of 8000 cm 2 /V·sec or more.
Use of an elastomeric profile for lateral attachment to a rail to be travelled over by railway vehicles, as a heat shield for the rails, wherein the elastomeric profile has at least one surface which faces away from the rail with a solar reflectance index SRI of ≥ 50.
A compound represented by one of the following Chemical Formulae 15 to 27, wherein the compound is used for an organic optoelectronic device: wherein, in the Chemical Formulae 15 to 27, Z is N-L 4 -R b, L 1 and L 4 are independently, a single bond, a substituted or unsubstituted C6 to C30 arylene group, a substituted or unsubstituted C2 to C30 heterocyclic group, or a combination thereof, and wherein the R 1 and R b are independently a group selected from substituted or unsubstituted groups listed in the following Group II: wherein, in Group II, R and R' are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C30 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, a substituted or unsubstituted C2 to C30 heteroaryl group, or a combination thereof, and * is a linking point.. one of the following Chemical Formulae 15 to 27, wherein the compound is used for an organic optoelectronic device: wherein, in the Chemical Formulae 15 to 27, Z is N-L 4 -R b, L 1 and L 4 are independently, a single bond, a substituted or unsubstituted C6 to C30 arylene group, a substituted or unsubstituted C2 to C30 heterocyclic group, or a combination thereof, and wherein the R 1 and R b are independently a group selected from substituted or unsubstituted groups listed in the following Group II: wherein, in Group II, R and R' are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C30 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, a substituted or unsubstituted C2 to C30 heteroaryl group, or a combination thereof, and * is a linking point..
Lifting device (10, 20) for lifting heavy loads, especially a lifting platform, having a plurality of cylinder/piston units (F1-F4, K1-K4) arranged in pairs, wherein each of the cylinder/piston units (F1-F4, K1-K4) has at least one hydraulic medium inlet and at least some of the cylinder/piston units (K1-K4) also have a hydraulic medium outlet and wherein each pair of units comprises a cylinder/piston unit (K1-K4) that is operated as a master unit and is connected to a pressure port of at least one hydraulic pump, and the respective other cylinder/piston unit (F1-F4) is operated as a slave unit in that the hydraulic medium inlet thereof is connected to the hydraulic medium outlet of one of the cylinder/piston units (K1-K4) operated as master units, wherein at least three pairs of units are provided and the pairs of units co-operate hydraulically with one another in series connection in such a way that in each case the hydraulic medium outlet of the master unit (K1, K2, K3) of a preceding pair of units is connected to the hydraulic medium inlet of the slave unit (F2, F3, F4) of the next following pair of units, and the hydraulic medium outlet of the master unit of a last pair of units is connected to the hydraulic medium inlet of the slave unit of a first pair of units, characterised in that all pairs of units are fed by means of two pressure lines (36a, 36b, 37a, 37b; 61 a, 61 b) which are separate from one another, each of the two pressure lines (36a, 36b, 37a, 37b; 61a, 61b) effecting hydraulic actuation of some of the cylinder/piston units (K1-K4; K1'-K8') that are operated as master units.
An image coding method of coding an input image including a luminance component and color difference components, the method comprising: acquiring one or more reference images; selecting a bi-directional prediction or a uni-directional prediction on the basis of a prediction mode that is explicitly or implicitly designated, and interpolating each of the luminance component and the color difference components in the reference image or images according to one or more motion vectors to generate a predicted image, wherein the generating of the predicted image for the color difference components includes changing the bi-directional prediction to the uni-directional prediction if a size of a block, which is a unit of an interpolation, is equal to or smaller than a predetermined first threshold value, and if the bi-directional prediction is selected. acquiring one or more reference images; selecting a bi-directional prediction or a uni-directional prediction on the basis of a prediction mode that is explicitly or implicitly designated, and interpolating each of the luminance component and the color difference components in the reference image or images according to one or more motion vectors to generate a predicted image, wherein the generating of the predicted image for the color difference components includes changing the bi-directional prediction to the uni-directional prediction if a size of a block, which is a unit of an interpolation, is equal to or smaller than a predetermined first threshold value, and if the bi-directional prediction is selected.
Elementary furniture module, for storage or presentation of objects comprising at least two front face and rear face chassis-frames, each with two right and left uprights and two top and bottom crosspieces, two right and left side walls inside the frames and a floor inside the frames (1, 2) bearing against the bottom crosspieces of the frames (1, 2), characterized by the fact that the floor is arranged to oppose the movement of the bottom portions of the side walls (5, 6) towards each other, the inward locking of the top portions of the side walls (5, 6) being also provided by a roof snap fit onto the side walls (5, 6) by two side rebates.
A sludge-reduction steam generator comprising: a plurality of U-shaped heat transfer pipes disposed in such a way that heat-exchange hot water flows in a pressure container; and one or more tubular plates coupled to the heat transfer pipes so as to support the heat transfer pipes, upper surfaces of the tubular plates being provided with a coated layer, wherein the coated layer is coated with a ceramic material having the same surface electrokinetic potential (zeta potential) as iron corrosion products including magnetite contained in sludge deposits and generating electric repulsion with precipitates including Fe 2 O 3 and Fe 3 O 4, and the ceramic material is one of titanium ceramic including TiO 2 and zirconium ceramic including ZrO 2 and wherein the sludge-reduction steam generator comprises a plurality of blow down ports for easily removing the sludge deposits. a plurality of U-shaped heat transfer pipes disposed in such a way that heat-exchange hot water flows in a pressure container; and one or more tubular plates coupled to the heat transfer pipes so as to support the heat transfer pipes, upper surfaces of the tubular plates being provided with a coated layer, wherein the coated layer is coated with a ceramic material having the same surface electrokinetic potential (zeta potential) as iron corrosion products including magnetite contained in sludge deposits and generating electric repulsion with precipitates including Fe 2 O 3 and Fe 3 O 4, and the ceramic material is one of titanium ceramic including TiO 2 and zirconium ceramic including ZrO 2 and wherein the sludge-reduction steam generator comprises a plurality of blow down ports for easily removing the sludge deposits.
A method performed by a terminal configured to operate in a wireless communication system, the method comprising: receiving (1f01), from a base station, configuration information for configuring a latency reduction mode having a reduced processing time compared to a normal mode; monitoring, based on the configuration information, downlink control information, DCI, transmitted from the base station, the DCI including scheduling information for an uplink data transmission being received at a first time; transmitting (1f07) uplink data based on the DCI at a second time after the first time according to the latency reduction mode, in case that a radio network temporary identifier, RNTI, of the terminal is used to decode the DCI; and transmitting (1f05) the uplink data based on the DCI at a third time after the first time according to the normal mode, in case that a preset RNTI different from the RNTI is used to decode the DCI, wherein the preset RNTI is configured as a fallback indication from the latency reduction mode to the normal mode, and the second time is prior to the third time based on the first time. receiving (1f01), from a base station, configuration information for configuring a latency reduction mode having a reduced processing time compared to a normal mode; monitoring, based on the configuration information, downlink control information, DCI, transmitted from the base station, the DCI including scheduling information for an uplink data transmission being received at a first time; transmitting (1f07) uplink data based on the DCI at a second time after the first time according to the latency reduction mode, in case that a radio network temporary identifier, RNTI, of the terminal is used to decode the DCI; and transmitting (1f05) the uplink data based on the DCI at a third time after the first time according to the normal mode, in case that a preset RNTI different from the RNTI is used to decode the DCI, wherein the preset RNTI is configured as a fallback indication from the latency reduction mode to the normal mode, and the second time is prior to the third time based on the first time.
A fuelling method comprising the steps of: instructing the dispensing of a provisional quantity of fuel to a fuel tank of an apparatus; dispensing an initial quantity of fuel to the fuel tank of the apparatus, the initial quantity of fuel being less than the provisional quantity of fuel; waiting for a predetermined settling period for the fuel dispensed to the fuel tank to homogenise and settle; after the predetermined settling period has elapsed, taking a fuel quantity reading using a fuel gauge associated with the fuel tank; receiving a desired final fuel quantity; calculating a differential volume of fuel, comprising a difference between the fuel quantity reading and the desired final fuel quantity; dispensing to the fuel tank a volume of fuel substantially equivalent to the differential volume using a dispensing apparatus including a fuel volume meter; and notifying an officer associated with the apparatus of the total fuel quantity contained within the fuel tank, derived from a combination of the fuel quantity reading read using the fuel gauge after dispensing the initial quantity of fuel and waiting for the settling period to elapse, and the differential volume measured using the fuel volume meter, such that waiting for the settling period to elapse after dispensing of the differential volume is avoided. instructing the dispensing of a provisional quantity of fuel to a fuel tank of an apparatus; dispensing an initial quantity of fuel to the fuel tank of the apparatus, the initial quantity of fuel being less than the provisional quantity of fuel; waiting for a predetermined settling period for the fuel dispensed to the fuel tank to homogenise and settle; after the predetermined settling period has elapsed, taking a fuel quantity reading using a fuel gauge associated with the fuel tank; receiving a desired final fuel quantity; calculating a differential volume of fuel, comprising a difference between the fuel quantity reading and the desired final fuel quantity; dispensing to the fuel tank a volume of fuel substantially equivalent to the differential volume using a dispensing apparatus including a fuel volume meter; and notifying an officer associated with the apparatus of the total fuel quantity contained within the fuel tank, derived from a combination of the fuel quantity reading read using the fuel gauge after dispensing the initial quantity of fuel and waiting for the settling period to elapse, and the differential volume measured using the fuel volume meter, such that waiting for the settling period to elapse after dispensing of the differential volume is avoided.
Length measuring device having a scale (1, 1.1) which extends in a longitudinal direction and which has a measurement graduation for position measurement in the longitudinal direction; at least one mounting element (2, 2.1, 2.2) by way of which the scale is able to be fastened rigidly to a carrier in the longitudinal direction, wherein the mounting element has a first fastening portion (21, 21.1, 21.2) by way of which it is arranged in a fixed position on the scale (1, 1.1), and has a second fastening portion (22, 22.1, 22.2) which is configured to be fastened to the carrier in a fixed position, wherein, between the first fastening portion (21, 21.1, 21.2) and the second fastening portion (22, 22.1, 22.2), a means is provided which allows the first fastening portion (21, 21.1, 21.2) to move with respect to the second fastening portion (22, 22.1, 22.2) perpendicularly to the longitudinal direction, characterized in that the means is an arrangement of a plurality of bendable struts (23, 24, 23.1, 23.2, 24.1, 24.2) which, by bending, allows the first fastening portion (21, 21.1, 21.2) to move with respect to the second fastening portion (22, 22.1, 22.2) perpendicularly to the longitudinal direction, wherein the arrangement of the struts (23, 24, 23.1, 23.2, 24.1, 24.2) is configured to compensate the change in length of the struts (23, 24, 23.1, 23.2, 24.1, 24.2) brought about by the bending such that no movement between the first fastening portion (21, 21.1, 21.2) and the second fastening portion (22, 22.1, 22.2) in the longitudinal direction results therefrom, wherein the plurality of struts (23, 24, 23.1, 23.2, 24.1, 24.2) are oriented parallel to the longitudinal direction, and proceeding from the first fastening portion, struts (23, 24) extend in opposite directions to a rigid bridge which connects the two struts (23, 24) rigidly together in the longitudinal direction, or proceeding from the first fastening portion (21.1, 21.2) and proceeding from the second fastening portion (22.1, 22.2), there is in each case one strut (23.1, 24.1; 23.2, 24.2) extending in the same direction to a coupler (29, 29.1) which connects the two struts (23.1, 24.1; 23.2, 24.2) together, and the change in length brought about by the bending of the struts (23.1, 24.1; 23.2, 24.2) is compensated by displacement of the coupler (29, 29.1) in the longitudinal direction.
Combination unit with an apparatus for injecting, for inoculation, fluid guided through tubes, which comprises a container for accommodating an inoculant, and with an apparatus for flushing tube lines, having a common device for generating compressed air and/or a common device for storing compressed air, which selectively serves for flushing the tubes or conveying the inoculant from the container, wherein the container has an outlet for the inoculant, via which the inoculant can be fed into at least one of the tubes, and has an inlet, which serves for feeding of the compressed air into the interior, fillable with the inoculant, of the container, and having a valve, the inlet of which can be subjected to the compressed air and via the first outlet of which the container fillable or filled with inoculant can be supplied with compressed air and via the second outlet of which the tube line to be flushed can be supplied with compressed air, characterized in that the combination unit, for mobile use, comprises a tube section with an attachment point at the inlet side and at the outlet side for attachment of the tube section to a tube system, on which tube section the apparatus for injecting for inoculation and the apparatus for flushing jointly act in that the tube section has an injection point for inoculation, which is connected to the container via a feed line, and has a feed point for the compressed air, which is connected to the second outlet of the valve via a line, and further characterized in that provision is made of at least one capillary through which the inoculant is guided during injection for inoculation and which is arranged at least partially within the container.