mhurhangee/ep-ind-claims huggingface dataset:
A locking assembly configured to be mounted on a door (18, 18') mounted in a frame in order to prevent the door (18, 18') from being opened, wherein the door (18, 18') comprises a locking arrangement comprising a handle (30, 30') connected to a rotatably mounted rod member (20, 20'), characterised in that the locking assembly comprises - an angle sensor arranged to detect the rotational position or the change in the rotational position of a rod member (20, 20'), - an anti-rotation device having a locking member and an actuator arranged and configured to displace the locking member and bring the locking member into: - a position in which the rod member (20, 20') cannot be rotated in one predefined direction of rotation, and - a position in which the rod member (20, 20') can be rotated in one predefined direction of rotation, - and a blocking member is attached to the rod member (20, 20') to abut the locking member. - an angle sensor arranged to detect the rotational position or the change in the rotational position of a rod member (20, 20'), - an anti-rotation device having a locking member and an actuator arranged and configured to displace the locking member and bring the locking member into: - a position in which the rod member (20, 20') cannot be rotated in one predefined direction of rotation, and - a position in which the rod member (20, 20') can be rotated in one predefined direction of rotation, - a position in which the rod member (20, 20') cannot be rotated in one predefined direction of rotation, and - a position in which the rod member (20, 20') can be rotated in one predefined direction of rotation, - and a blocking member is attached to the rod member (20, 20') to abut the locking member.
Device for separating and/or testing containers with at least one processing star wheel that can be driven step-by-step and that is used to feed containers to at least one processing system (21, 45), and with a continuously drivable discharge device for removing the containers from the processing star wheel, wherein the discharge device possesses at least one discharge star wheel, wherein the discharge star wheel is connected to a delivery drive for continuously driving the discharge star wheel, wherein a container can be converted from a stepwise rotational movement into a continuous movement by means of the discharge star wheel, wherein a plurality of pockets are arranged on the outer circumference of the processing star wheel which are formed by teeth, and the discharge star wheel has a plurality of evenly distributed receptacles on its outer circumference to receive and guide an individual container, wherein the receptacles are formed and/or delimited by teeth and/or bars of the discharge star wheel, characterised in that the teeth and/or bars of the discharge star wheel extend outward in the conveying direction at an angle from the outer circumference of the discharge star wheel.
A nanoimprint mold made of titania-doped quartz glass, in which the titania-doped quartz glass contains 5 to 10% by weight of titania, has a titania concentration distribution of not more than 3% by weight, a chlorine concentration of not more than 500 ppm and an OH concentration of not more than 1000 ppm, and in which the titania-doped quartz glass is free of inclusions and has an internal transmittance of at least 70% with respect to UV radiation of 365 nm wavelength, measured at a thickness of 10mm according to JOGIS-17-1982; an internal transmittance distribution, being the difference between maximum and minimum values over the mold substrate, of not more than 10% with respect to UV radiation of 365 nm wavelength; a refractive index distribution, at 25°C with respect to He-Ne laser, of not more than 5 x 10 -4 and a birefringence at 25°C of not more than 30 nm/cm.
A lance (10, 30, 50), for conducting a pyrometallurgical operation by top submerged lancing injection, wherein the lance (10, 30, 50) has a plurality of substantially concentric pipes including inner (12, 32, 52) and outer (14, 34, 54) pipes and, optionally, at least one pipe between the inner (12, 32, 52) and outer pipes; the lower end of the inner or the inner pipe (12, 32, 52) and at least a next outermost pipe is set substantially at a required level relative to the lower end of the outer pipe (14, 34, 54) required for the pyrometallurgical operation; and wherein the lance (10, 30, 50) defines at least two passages, including an annular passage (16, 36, 56) defined between two of the pipes and a passage (17, 37, 57) defined by the inner pipe (12, 32, 52), whereby the lance (10, 30, 50) enables fuel/reductant and oxygen-containing gas to be injected separately through the lance (10, 30, 50) so as to mix at the outlet ends of the inner (12, 32, 52) and outer pipes (14, 34, 54) and generate a combustion zone within a slag phase during top submerged injection during the pyrometallurgical operation, while maintaining a protective coating of solidified slag over the outer surface of the outer pipe (14, 34, 54) over at least a lower part of the length of the lance (10, 30, 50) submerged in molten slag during the operation, characterized in that the lower end of the inner pipe (12, 32, 52) is set back from the lower end of the outer pipe (14, 34, 54) so that a mixing chamber (18, 38, 58) is defined between those ends; and the lance (10, 30, 50) is adapted for suspension from an installation (22, 24, 26) that is operable to raise or lower the lance (10, 30, 50) as a whole relative to a TSL reactor and enables relative longitudinal movement between the inner (12, 32, 52) and outer (14, 34, 54) pipes, the relative positions of the inner (12, 32, 52) and outer pipes (14, 34, 54) being longitudinally adjustable to enable the required set level or the length of the mixing chamber (18, 38, 58) between the lower ends of the inner (12, 32, 52) and outer (14, 34, 54) pipes to be maintained during a period of use to compensate for the lower end of the outer pipe (14, 34, 54) wearing and burning back, and further including a drive system by which the relative longitudinal movement between the inner (12, 32, 52) and outer (14, 34, 54) pipes is generated.
An apparatus to generate pressure support ventilation, comprising: at least one sensor adapted to measure at least one respiratory parameter; a flow generator adapted for coupling with a patient respiratory interface, the flow generator configured to provide a flow of breathable gas for pressure support ventilation to the patient respiratory interface; and a controller, coupled to the at least one sensor and the flow generator, the controller configured to control the pressure support ventilation with the flow generator, the controller being further configured with a rest mode and an exercise mode, the rest mode comprising a first value set of control parameters for the pressure support ventilation and the exercise mode comprising a second value set of control parameters for the pressure support ventilation, wherein the controller is configured to receive another user activated trigger stimulus, and, in response to this trigger stimulus to select the second value set of control parameters for the exercise mode, characterised in that, the apparatus further comprising a diaphragm electromyogram sensor and/or a vagal nerve sensor to activate the controller, the sensor(s) being configured for actuating the trigger stimulus. at least one sensor adapted to measure at least one respiratory parameter; a flow generator adapted for coupling with a patient respiratory interface, the flow generator configured to provide a flow of breathable gas for pressure support ventilation to the patient respiratory interface; and a controller, coupled to the at least one sensor and the flow generator, the controller configured to control the pressure support ventilation with the flow generator, the controller being further configured with a rest mode and an exercise mode, the rest mode comprising a first value set of control parameters for the pressure support ventilation and the exercise mode comprising a second value set of control parameters for the pressure support ventilation, wherein the controller is configured to receive another user activated trigger stimulus, and, in response to this trigger stimulus to select the second value set of control parameters for the exercise mode, characterised in that, the apparatus further comprising a diaphragm electromyogram sensor and/or a vagal nerve sensor to activate the controller, the sensor(s) being configured for actuating the trigger stimulus.
A vehicle speed control system for a vehicle having a plurality of wheels (111, 112, 114, 115), the vehicle speed control system comprising: means for receiving a user input of a target speed at which the vehicle is intended to travel; and means for commanding application of torque to one or more wheels (111, 112, 114, 115) of the vehicle, characterized in that: the system is configured such that when it is required to accelerate the vehicle to achieve the target speed and a wheel slip event is detected, the system is operable temporarily to suspend further acceleration of the vehicle and operable to resume acceleration at a rate limited to the rate of acceleration of the vehicle when the slip event was detected, when the suspension of further acceleration is lifted. means for receiving a user input of a target speed at which the vehicle is intended to travel; and means for commanding application of torque to one or more wheels (111, 112, 114, 115) of the vehicle, characterized in that: the system is configured such that when it is required to accelerate the vehicle to achieve the target speed and a wheel slip event is detected, the system is operable temporarily to suspend further acceleration of the vehicle and operable to resume acceleration at a rate limited to the rate of acceleration of the vehicle when the slip event was detected, when the suspension of further acceleration is lifted.
Device for positioning the intake of a member for transmitting solar energy relative to a convergent optical concentrator, comprising a mounting, provided with at least one reserve suitable for receiving and holding the optical concentrator in a predetermined direction and allowing light to pass through said mounting, a receiver suitable for receiving and holding the intake of the transmitting member, and at least one spacer element in order to keep said receiver spaced apart from the mounting in a stationary position relative to said reserve, said stationary position being defined in accordance with the features of the transmitting member and optical concentrator, characterised in that said mounting is made of ultra-high-performance fibre concrete.
A device for manufacturing containers by thermoforming, comprising a thermoforming station which comprises a plurality of thermoforming chambers, characterized in that the thermoforming station comprises a mould block base having thermoforming cavities and a mould block interface comprising at least two series of interface jackets (22B', 22B"), the mould block interface being able to be moved so that the interface jackets of one series are able to be placed facing thermoforming cavities of the mould block base so as to form, with these cavities, thermoforming chambers in which containers can be thermoformed, whilst the interface jackets (22B") of the other series are drawn away from the mould block base to allow the disengaging of containers previously thermoformed carried by these interface jackets (22B").
A coating solution for producing a gas barrier laminate comprising: a carboxyl group-containing polymer; polyvalent metal-containing particles; a surfactant; an organic solvent; and at least one silicon-containing compound selected from a group consisting of a silane coupling agent represented by a following general formula, a silane coupling agent represented by a following general formula, hydrolysates thereof, and condensates thereof, wherein a mass ratio of the silicon-containing compound to the carboxyl group-containing polymer (a mass of the silicon-containing compound is expressed in terms of a silane coupling agent) is 0.5% or more and 7% or less. Si 3 Z1... Si 2 Z2... (In the general formula, R1 are the same or different alkyl groups having 1 to 6 carbon atoms, and Z1 is a group containing an epoxy group, and in the general formula, R2 is a methyl group, R3 are the same or different alkyl groups having 1 to 6 carbon atoms, and Z2 is a group containing an epoxy group.) a carboxyl group-containing polymer; polyvalent metal-containing particles; a surfactant; an organic solvent; and at least one silicon-containing compound selected from a group consisting of a silane coupling agent represented by a following general formula, a silane coupling agent represented by a following general formula, hydrolysates thereof, and condensates thereof, wherein a mass ratio of the silicon-containing compound to the carboxyl group-containing polymer (a mass of the silicon-containing compound is expressed in terms of a silane coupling agent) is 0.5% or more and 7% or less. Si 3 Z1... Si 2 Z2... (In the general formula, R1 are the same or different alkyl groups having 1 to 6 carbon atoms, and Z1 is a group containing an epoxy group, and in the general formula, R2 is a methyl group, R3 are the same or different alkyl groups having 1 to 6 carbon atoms, and Z2 is a group containing an epoxy group.)
A method for receiving data in a communication network supporting a plurality of systems, the method comprising: receiving (704, 804, 904) at least one of control information on a first system in a first zone of a subframe and control information on a second system in a second zone of the subframe; and receiving (722, 820, 916) data in a third zone of the subframe based on the at least one of the control information on the first system and the control information on the second system, wherein the control information on the first system includes resource allocation information and decoding information for data transmitted in the third zone using a scheme for the first system wherein the control information on the second system includes resource allocation information and decoding information for data transmitted in the third zone using a scheme for the second system and wherein the first zone and the second zone are distinguished from each other by time and frequency. receiving (704, 804, 904) at least one of control information on a first system in a first zone of a subframe and control information on a second system in a second zone of the subframe; and receiving (722, 820, 916) data in a third zone of the subframe based on the at least one of the control information on the first system and the control information on the second system, wherein the control information on the first system includes resource allocation information and decoding information for data transmitted in the third zone using a scheme for the first system wherein the control information on the second system includes resource allocation information and decoding information for data transmitted in the third zone using a scheme for the second system and wherein the first zone and the second zone are distinguished from each other by time and frequency.
Tool for a cooking appliance, which has a sleeve shaped to form a shaft, which is shaped at a lower end to form a substantially bell-shaped cup, in which a spindle mounted in the shaft is arranged in a knife which can be made to rotate, wherein an inner wall of the cup is formed by a cover shell, wherein a surface of the cover shell facing the knife has a plurality of craters, wherein the plurality, namely between 50 and 400, of craters embodied as depressions is arranged on a main part of the surface of the cover shell, wherein the cover shell covers at least 70% of the cup wall in the inside of the cup.
A method for the non-destructive analysis of a laminated state of an arrangement of laminated plastic film layers for a plastic card body, wherein the method comprises the following steps: - optically analysing a layer arrangement, which is selected as reference, with stacked plastic film layers in the laminated state, in which the plastic film layers are laminated in a manner satisfying a minimum standard, in particular in a manner free from non-laminated regions; and - optically analysing a laminating quality for a layer arrangement to be tested, with the stacked plastic film layers in the laminated state, in which the plastic film layers are laminated; wherein - during the optical analysis by means of measuring light beams, which are provided by a measuring light source and which are shone onto the respective layer arrangement, the transmittance is determined for the layer arrangement in each case; - the layer arrangement to be tested is defined as a usable plastic card body if a difference between the transmittance determined for the layer arrangement selected as reference and the transmittance determined for the layer arrangement to be tested, which indicates the laminating quality, lies within a predetermined tolerance limit for the transmittance; and - otherwise, the layer arrangement to be tested with the stacked plastic film layers in the laminated state is defined as scrap. - optically analysing a layer arrangement, which is selected as reference, with stacked plastic film layers in the laminated state, in which the plastic film layers are laminated in a manner satisfying a minimum standard, in particular in a manner free from non-laminated regions; and - optically analysing a laminating quality for a layer arrangement to be tested, with the stacked plastic film layers in the laminated state, in which the plastic film layers are laminated; - during the optical analysis by means of measuring light beams, which are provided by a measuring light source and which are shone onto the respective layer arrangement, the transmittance is determined for the layer arrangement in each case; - the layer arrangement to be tested is defined as a usable plastic card body if a difference between the transmittance determined for the layer arrangement selected as reference and the transmittance determined for the layer arrangement to be tested, which indicates the laminating quality, lies within a predetermined tolerance limit for the transmittance; and - otherwise, the layer arrangement to be tested with the stacked plastic film layers in the laminated state is defined as scrap.
A consortium of micro-organisms comprising, consisting or consisting essentially of Rhizobium radiobacter NCIMB 42280, Bacillus subtilis NCIMB 42282, Bacillus thuringiensis NCIMB 42283, Pseudomonas putida NCIMB 42441, and Pseudomonas stutzeri NCIMB 42281.
A composition comprising: from 25 wt % to 50 wt % of a thermoplastic polyurethane; from 5 wt % to 50 wt % of an olefin block copolymer; wherein the OBC is an ethylene multiblock interpolymer; and from 30 wt % to 70 wt % of a flame retardant selected from the group consisting of resorcinol bis(diphenyl phosphate), bis diphenyl phosphate, bisphenol-A bis(diphenyl phosphate) (BPADP), aluminum trihydrate, a nitrogen/phosphorus-based halogen-free flame retardant, epoxidized novolac resin, and combinations thereof; wherein the TPU is a continuous phase in which the OBC and the flame retardant are dispersed; and wherein the weight percentages are based on the total weight of the composition. from 25 wt % to 50 wt % of a thermoplastic polyurethane; from 5 wt % to 50 wt % of an olefin block copolymer; wherein the OBC is an ethylene multiblock interpolymer; and from 30 wt % to 70 wt % of a flame retardant selected from the group consisting of resorcinol bis(diphenyl phosphate), bis diphenyl phosphate, bisphenol-A bis(diphenyl phosphate) (BPADP), aluminum trihydrate, a nitrogen/phosphorus-based halogen-free flame retardant, epoxidized novolac resin, and combinations thereof; wherein the TPU is a continuous phase in which the OBC and the flame retardant are dispersed; and wherein the weight percentages are based on the total weight of the composition.
An inductor including a coil made up of a multi-layer wire comprising: a) a plurality of conductor layers, each conductor layer having a conductor thickness, a skin depth, and an electrical resistance spaced apart from each other, wherein at least one switch is connected to at least one of the plurality of conductor layers; b) a plurality of insulator layers, one of the plurality of insulator layers positioned in the space between the plurality of conductor layers, thereby forming an inductor structure of alternate conductor and insulator layers capable of exhibiting an inductance with a quality factor at an operating frequency; c) at least one connector electrically connecting at least two of the plurality of conductor layers; d) wherein the thickness of at least one of the plurality of conductor layers is equal to or greater than the thickness of the skin depth of the conductor layer at the operating frequency; and e) wherein actuation of the at least one switch enables an electrical current to propagate through the inductor along an electrical path having a configuration that is different than prior to actuation of the at least one switch, thereby causing at least one of an electrical resistance, the inductance and the quality factor of the inductor to be modified. a) a plurality of conductor layers, each conductor layer having a conductor thickness, a skin depth, and an electrical resistance spaced apart from each other, wherein at least one switch is connected to at least one of the plurality of conductor layers; b) a plurality of insulator layers, one of the plurality of insulator layers positioned in the space between the plurality of conductor layers, thereby forming an inductor structure of alternate conductor and insulator layers capable of exhibiting an inductance with a quality factor at an operating frequency; c) at least one connector electrically connecting at least two of the plurality of conductor layers; d) wherein the thickness of at least one of the plurality of conductor layers is equal to or greater than the thickness of the skin depth of the conductor layer at the operating frequency; and e) wherein actuation of the at least one switch enables an electrical current to propagate through the inductor along an electrical path having a configuration that is different than prior to actuation of the at least one switch, thereby causing at least one of an electrical resistance, the inductance and the quality factor of the inductor to be modified.
Method for producing an electrical plug-in connector at an end portion of a multicore electric cable, the cores (11, 12) of said cable being surrounded in a ring-like manner in cross section in the end portion by an outer conductor, wherein firstly at least one stamp (P1a, P1b) deforms the outer conductor in the direction of the cores (11, 12) radially in portions and secondly the outer conductor is provided with an injection-moulded encapsulation in an injection-moulding die in portions, characterized in that the at least one stamp (P1a, P1b), after the deformation of the outer conductor, is positioned on the outer conductor in such a way that the stamp (P1a, P1b) partially delimits a mould cavity to be filled with plasticized moulding compound for forming the injection-moulded encapsulation and that, for further delimiting the mould cavity, at least one die part (S1, S2) of the injection-moulding die is guided in the direction of the outer conductor and is positioned in the area surrounding said outer conductor.