mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: determining (1405, 1505, 1605, 1705, 1805, 1905), at a first device, that a first set of transmission resources in a transmission time interval, TTI, has a higher priority than a second set of transmission resources in the TTI based at least in part on the second set of transmission resources having a higher likelihood of being punctured by a second device; and transmitting (1420, 1535, 1640, 1745, 1825, 1910) a bit sequence to the second device via the TTI, wherein the bit sequence is generated based at least in part on the first set of transmission resources in the TTI having the higher priority than the second set of transmission resources in the TTI. determining (1405, 1505, 1605, 1705, 1805, 1905), at a first device, that a first set of transmission resources in a transmission time interval, TTI, has a higher priority than a second set of transmission resources in the TTI based at least in part on the second set of transmission resources having a higher likelihood of being punctured by a second device; and transmitting (1420, 1535, 1640, 1745, 1825, 1910) a bit sequence to the second device via the TTI, wherein the bit sequence is generated based at least in part on the first set of transmission resources in the TTI having the higher priority than the second set of transmission resources in the TTI.
A scope sheath stabilization system comprising: a scope sheath engaging portion, and a shaft configured to securely attach the stabilization system to a table mounted flexible or rigid arm, characterised in that the scope sheath engaging portion comprises an inverted U-shape device having an upper portion connected to the shaft and two downward extending legs and each having a hook and positioned at a bottom thereof and configured to engage a scope sheath from an underside of the inflow port and the outflow port of the scope sheath, respectively; and that the shaft comprises a plunger assembly,,, extending downward from the top portion and placed between the two downward extending legs and and configured to engage an upper surface of the scope sheath to secure the scope sheath from any movement once positioned in the scope sheath engaging portion. a scope sheath engaging portion, and a shaft configured to securely attach the stabilization system to a table mounted flexible or rigid arm, characterised in that the scope sheath engaging portion comprises an inverted U-shape device having an upper portion connected to the shaft and two downward extending legs and each having a hook and positioned at a bottom thereof and configured to engage a scope sheath from an underside of the inflow port and the outflow port of the scope sheath, respectively; and that the shaft comprises a plunger assembly,,, extending downward from the top portion and placed between the two downward extending legs and and configured to engage an upper surface of the scope sheath to secure the scope sheath from any movement once positioned in the scope sheath engaging portion.
Clamping unit for containers at container handling machines, in particular at those for directly printing onto the containers, comprising a lifting arm movable in the vertical direction with a centering support for clamping a container, in particular a bottle, from above, characterized by a motor for driving the lifting arm; a pneumatic spring against the resistance of which the centering support is mounted at the lifting arm so as to be movable to the top; and at least one pressure line via which compressed air may be applied to the pneumatic spring, and wherein the spring force of the pneumatic spring is provided by a cylinder space filled with gas, and the resistance is formed by compressing the cylinder space.
Method for operating a first energy generator in an electrical power supply network, to which a plurality of electrical consumers and at least the first energy generator, which is designed in particular as a regenerative energy generator, are connected via a network connection point respectively assigned thereto in each case, - wherein at least the first energy generator has an inverter with a predetermined power rating, the AC voltage output of which being electrically connected to a first network connection point assigned thereto, - wherein the operation control of the inverter with respect to its reactive power feed and/or its reactive draw into or out of the power supply network takes place in dependence of a continuously measured network voltage value (N Netz) - wherein the mains voltage value (N Netz) is measured at a second network connection point, which is different from the first network point of the energy generator, - wherein at least one further network connection point is arranged between the first network connection point and the second network connection point, and - wherein the mains voltage value (U Netz) at the network connection points of several consumers at the same voltage level is determined and the operation control takes place on the basis of the correspondingly several mains voltage values (U Netz 1), (U Netz n), in particular on the basis of a constructed mains voltage value (U Netz) determined by connection of various mains voltage values (U Netz 1 bis U Netz n). - wherein at least the first energy generator has an inverter with a predetermined power rating, the AC voltage output of which being electrically connected to a first network connection point assigned thereto, - wherein the operation control of the inverter with respect to its reactive power feed and/or its reactive draw into or out of the power supply network takes place in dependence of a continuously measured network voltage value (N Netz) - wherein the mains voltage value (N Netz) is measured at a second network connection point, which is different from the first network point of the energy generator, - wherein at least one further network connection point is arranged between the first network connection point and the second network connection point, and - wherein the mains voltage value (U Netz) at the network connection points of several consumers at the same voltage level is determined and the operation control takes place on the basis of the correspondingly several mains voltage values (U Netz 1), (U Netz n), in particular on the basis of a constructed mains voltage value (U Netz) determined by connection of various mains voltage values (U Netz 1 bis U Netz n).
A refrigerant transport hose comprising a barrier layer formed from a resin composition containing a polymer component as an innermost layer, the polymer component comprising a polyamide resin and a polyolefin-based elastomer, wherein the innermost layer is to be in direct contact with a refrigerant and an oil flowing in the refrigerant transport hose, the polymer component further comprises a block copolymer having a structure in which a polyamide block is grafted to a polyolefin skeleton, a content of the block copolymer is 5 to 45 parts by mass with respect to 100 parts by mass of the polymer component, a total content of the polyolefin-based elastomer and the block copolymer is less than 70 parts by mass with respect to 100 parts by mass of the polymer component, and the block copolymer has bimodal melting peaks in differential scanning calorimetry, a melting peak temperature on a low temperature side is 85°C or more, and a melting peak temperature on a high temperature side is 200°C or more. wherein the innermost layer is to be in direct contact with a refrigerant and an oil flowing in the refrigerant transport hose, the polymer component further comprises a block copolymer having a structure in which a polyamide block is grafted to a polyolefin skeleton, a content of the block copolymer is 5 to 45 parts by mass with respect to 100 parts by mass of the polymer component, a total content of the polyolefin-based elastomer and the block copolymer is less than 70 parts by mass with respect to 100 parts by mass of the polymer component, and the block copolymer has bimodal melting peaks in differential scanning calorimetry, a melting peak temperature on a low temperature side is 85°C or more, and a melting peak temperature on a high temperature side is 200°C or more.
A high-power high-voltage test device comprising: - means for generating a test voltage, wherein the test voltage is an a.c. voltage with an amplitude of at least 100 kV and a power of higher than 1 kW and wherein the means for generating the test voltage have at least two voltage-amplifier branches (4, 5), of which a first voltage-amplifier branch contributes to generating the positive voltage half-waves of the test voltage and a second voltage-amplifier branch contributes to generating the negative voltage half-waves of the test voltage, and - a measuring circuit (17, 23, 24) for measuring the test voltage to be applied to a measurement object and the test current induced thereby in the measurement object, characterized in that each voltage-amplifier branch (4, 5) is mounted in a separate subassembly (26, 26', 26", 27, 27', 27") with integrated active air cooling (32, 33, 34, 35). - means for generating a test voltage, wherein the test voltage is an a.c. voltage with an amplitude of at least 100 kV and a power of higher than 1 kW and wherein the means for generating the test voltage have at least two voltage-amplifier branches (4, 5), of which a first voltage-amplifier branch contributes to generating the positive voltage half-waves of the test voltage and a second voltage-amplifier branch contributes to generating the negative voltage half-waves of the test voltage, and - a measuring circuit (17, 23, 24) for measuring the test voltage to be applied to a measurement object and the test current induced thereby in the measurement object,
A method for activating a virtual haptic geometry based on a position of a portion of an instrument relative to a target feature, comprising: detecting the position of a reference point of an instrument (103, 210) relative to a plurality of target features (402a, 402b, 402c), wherein each of the plurality of target features corresponds to a respective virtual haptic geometry (400a, 400b, 400c) from among a plurality of inactive haptic geometries (400a, 400b, 400c); determining which of the plurality of target features is closest to and within a threshold distance of the reference point of the instrument, to select a virtual haptic geometry corresponding to the closest target feature; and activating the virtual haptic geometry corresponding to the closest target feature. detecting the position of a reference point of an instrument (103, 210) relative to a plurality of target features (402a, 402b, 402c), wherein each of the plurality of target features corresponds to a respective virtual haptic geometry (400a, 400b, 400c) from among a plurality of inactive haptic geometries (400a, 400b, 400c); determining which of the plurality of target features is closest to and within a threshold distance of the reference point of the instrument, to select a virtual haptic geometry corresponding to the closest target feature; and activating the virtual haptic geometry corresponding to the closest target feature.
A method of controlling an electric discharge machining apparatus having at least a tool electrode and a workpiece, the method comprising the steps of: - positioning the tool electrode relative to the workpiece; - generating an impulse train (14, 17, 21, 24, 38, 42, 46, 49, 52) at a single region including at least one first type discharge impulse (15, 18, 22, 25, 27, 39, 43, 47, 50, 53) and at least one second type discharge impulse (16, 19, 23, 26, 30, 40, 44, 48, 51, 54), wherein the impulse train including the first and second type discharge impulses is appliedto a gap between the tool electrode and the workpiece - wherein the at least one first type discharge impulse (15,18,22,25,27 39,43,47,50,53) has a positive polarity - generating the at least one first type discharge impulse (15, 18, 22, 25, 27, 39, 43, 47, 50, 53) and the at least one second type discharge impulse (16, 19, 23, 26, 30, 40, 44, 48, 51, 54), wherein the at least one first type discharge impulse has a longer impulse duration (T L) than the impulse duration (T S) of the at least one second type discharge impulse, and wherein the first type discharge impulse causes the formation of a protective film against wear on the tool electrode at the single region and the second type discharge impulse causes erosion at least on the tool electrode at the single region - applying the first and second type discharge impulses to the gap between the tool electrode and the workpiece for material removal from the workpiece, wherein a ratio between the first and second type discharge impulses applied to the tool electrode is such defined that a predefined wear of the tool electrode is caused. - positioning the tool electrode relative to the workpiece; - generating an impulse train (14, 17, 21, 24, 38, 42, 46, 49, 52) at a single region including at least one first type discharge impulse (15, 18, 22, 25, 27, 39, 43, 47, 50, 53) and at least one second type discharge impulse (16, 19, 23, 26, 30, 40, 44, 48, 51, 54), wherein the impulse train including the first and second type discharge impulses is appliedto a gap between the tool electrode and the workpiece - wherein the at least one first type discharge impulse (15,18,22,25,27 39,43,47,50,53) has a positive polarity - generating the at least one first type discharge impulse (15, 18, 22, 25, 27, 39, 43, 47, 50, 53) and the at least one second type discharge impulse (16, 19, 23, 26, 30, 40, 44, 48, 51, 54), wherein the at least one first type discharge impulse has a longer impulse duration (T L) than the impulse duration (T S) of the at least one second type discharge impulse, and wherein the first type discharge impulse causes the formation of a protective film against wear on the tool electrode at the single region and the second type discharge impulse causes erosion at least on the tool electrode at the single region - applying the first and second type discharge impulses to the gap between the tool electrode and the workpiece for material removal from the workpiece, wherein a ratio between the first and second type discharge impulses applied to the tool electrode is such defined that a predefined wear of the tool electrode is caused.
Oil supply device for an internal combustion engine, in particular for a crankcase of an internal combustion engine, having at least one oil reservoir and having at least one delivery device by means of which oil is conducted from the oil reservoir via at least one flow duct to at least one main oil duct of a crankcase of the internal combustion engine, wherein multiple oil filter units are provided in the flow path of the oil from the oil reservoir to the at least one main oil duct, and wherein furthermore a filter switching device is provided by means of which the oil filter units can be selectively connected into the flow path of the oil to the main oil duct such that only one proportion of the oil filter units, as at least one active oil filter unit, is traversed by a flow of the oil, and the other proportion of the oil filter units, as at least one passive oil filter unit, is not traversed by a flow of the oil, wherein, in the flow path from the oil reservoir to the oil filter units (11, 17), there is provided a switching unit which, in at least one proportion of those switching positions of the filter switching device in which one proportion of the oil filter units (11, 17) is switched into an active state and another proportion of the oil filter units (11, 17) is switched into a passive state, opens up a first pressurized oil flow path from the oil reservoir to the at least one active oil filter unit (11, 17) and also produces a second drainage flow path between the at least one passive oil filter unit (11, 17) and a drainage duct, wherein the drainage duct is assigned a drainage device, by means of which the oil which has accumulated in the region of the at least one passive oil filter unit (11, 17) can be drained, characterized in that the drainage device is formed as an evacuation device, by means of which the accumulated oil can be evacuated and the drainage duct formed as an evacuation duct is assigned an ejector pump device as an evacuation device, by means of which the oil which has accumulated in the region of the at least one passive oil filter unit (11, 17) can be evacuated via the evacuation duct, wherein to generate an evacuation pressure, the ejector pump device can be acted on with a pressurized oil partial flow branched off from the pressurized oil flow path.
Support for mounting an audible alarm device of an acoustic warning system signalling the approach of a silent vehicle (AVAS) to the body of a silent motor vehicle, the support comprising a plate extending longitudinally and transversely in its extension plane, the plate providing in its plane a base for receiving the audible alarm device and being provided with at least one lug (5a, 5b) for fixing the support to the body of the vehicle which extends vertically (V 1) perpendicular to the plane of the plate, the base extending at a first of the longitudinal ends (4 a) of the plate and is provided with a first said fixing lug (5 a) of vertical and transverse extension (T 1) which is arranged at a longitudinal overhang (L 1) of the base, a second said fixing lug (5 b) of vertical (V 1) and longitudinal extension (L 1) being arranged at the other second longitudinal end (4 b) of the plate while being arranged at a longitudinal distance (L 1) from the base 6), the base being bordered by wings (8a, 8b) extending vertically perpendicular to the plane of the plate, said wings (8a, 8b) delimiting a housing for receiving the audible alarm device on the base and comprising at least two longitudinal wings arranged facing respectively one and the other of the transverse longitudinal edges opposite the base, and at least one transverse wing arranged at the transverse edge of the first longitudinal end of the base. the plate, the support being characterized in that said transverse wing comprises, at one of its transverse edges extending overhanging the base, a return oriented towards the outside of the base substantially parallel to the plane of extension of the plate, said return itself being extended at its longitudinal end projecting from the base by the first fixing lug.
Anchoring element for T-slots in floor plates of utility vehicles for fixing components such as built-in cupboards or the like by means of a baseplate and a screw-connection part which can be fixed to the baseplate and coupled to the components, characterised in that the baseplate has a recess, which is open towards the base of the T-slot and in which a holding part is arranged so as to be displaceable substantially perpendicular to the longitudinal axis of the T-slot when the anchoring element is mounted, the screw-connection part being able to be screwed into the holding part from the upper face of the baseplate through a slot recess, the central longitudinal axis of which extends perpendicular to the longitudinal axis of the T-slot.
An inflatable body defining a fluid impermeable, pressurizable chamber and an orifice for exposing the chamber to an ambient environment, the chamber comprising a resilient core of material, and wherein the inflatable body further comprises: a valve assembly having: a vent body having an external orifice for exposure to the ambient environment, an internal orifice for presenting to the chamber and in fluid communication with the external orifice, and an inflatable body interface adapted to sealingly occupy the inflatable body orifice; a collapsible, hollow elongate member having a proximal end extending from the internal orifice of the vent body and terminating at a distal end; and a first compression member (70a, 70b, 70c) oriented about the elongate member at a first location in such a manner so as to sealingly collapse the elongate member upon presentation of a sufficient mechanical force thereat, and wherein the elongate member is wholly disposed within the chamber defined by the inflatable body. a valve assembly having: a vent body having an external orifice for exposure to the ambient environment, an internal orifice for presenting to the chamber and in fluid communication with the external orifice, and an inflatable body interface adapted to sealingly occupy the inflatable body orifice; a collapsible, hollow elongate member having a proximal end extending from the internal orifice of the vent body and terminating at a distal end; and a first compression member (70a, 70b, 70c) oriented about the elongate member at a first location in such a manner so as to sealingly collapse the elongate member upon presentation of a sufficient mechanical force thereat, and a vent body having an external orifice for exposure to the ambient environment, an internal orifice for presenting to the chamber and in fluid communication with the external orifice, and an inflatable body interface adapted to sealingly occupy the inflatable body orifice; a collapsible, hollow elongate member having a proximal end extending from the internal orifice of the vent body and terminating at a distal end; and a first compression member (70a, 70b, 70c) oriented about the elongate member at a first location in such a manner so as to sealingly collapse the elongate member upon presentation of a sufficient mechanical force thereat, and wherein the elongate member is wholly disposed within the chamber defined by the inflatable body.
An electrode comprising: a) an ionically-conductive hydrogel layer comprising a first major surface and opposing major surface; b) a discontinuous primer layer disposed on the first major surface of the ionically-conducting hydrogel layer, wherein the primer layer comprises a plurality of discrete portions wherein the primer material is present defined by an adjacent area wherein the primer material is absent; and c) an electrically conductive member (51A, 51B) or a connector component thereof, in contact with the first major surface of the ionically-conducting hydrogel layer. a) an ionically-conductive hydrogel layer comprising a first major surface and opposing major surface; b) a discontinuous primer layer disposed on the first major surface of the ionically-conducting hydrogel layer, wherein the primer layer comprises a plurality of discrete portions wherein the primer material is present defined by an adjacent area wherein the primer material is absent; and c) an electrically conductive member (51A, 51B) or a connector component thereof, in contact with the first major surface of the ionically-conducting hydrogel layer.
A field device, in particular an actuator control, for connection to a programmable logic controller, PLC, said field device having hardware comprising a processing unit, a memory and a data interface for communication with the PLC, wherein the field device is configured to receive compatibility information, and a firmware having a plurality of functions (20, 22, 24, 26) for operating the field device is stored in the memory, characterized in that the processing unit is configured to release a subset of the functions (20, 22, 24, 26) of the firmware for execution in dependence on the compatibility information to produce a behavior of the field device which is adapted to the compatibility information. a processing unit, a memory and a data interface for communication with the PLC, wherein the field device is configured to receive compatibility information, and a firmware having a plurality of functions (20, 22, 24, 26) for operating the field device is stored in the memory,