mhurhangee/ep-ind-claims huggingface dataset:
A remote terminal for use in a telemetry system including one or more image capture devices linked to the remote terminal and one or more associated monitoring devices adapted to produce an event signal in response to detection of an event, the remote terminal including: a memory associated with each image capture device, the memory recording a moving sequence of images from the associated image capture device; the associated memory of each image capture device being responsive to an event signal to capture images in the memory; a remote terminal network interface means [48, 49] adapted to: i) receive and respond to poll requests from one or more associated supervision terminals with which the remote terminal is in communication across one or more packet switched networks; ii) transmit alert condition to one or more of the associated supervision terminals; a monitoring device interface adapted to receive monitoring messages originating from the one or more associated monitoring devices, and to transmit acknowledgement messages to the one or more monitoring devices; wherein the remote terminal is adapted to receive messages from the or each associated supervision terminal, the message content of the messages being transmitted transparently across the network through intermediate nodes in the one or more packet switched networks and transmit captured images to an image server in response to an image transmission command from an associated supervision terminal. a memory associated with each image capture device, the memory recording a moving sequence of images from the associated image capture device; the associated memory of each image capture device being responsive to an event signal to capture images in the memory; a remote terminal network interface means [48, 49] adapted to: i) receive and respond to poll requests from one or more associated supervision terminals with which the remote terminal is in communication across one or more packet switched networks; ii) transmit alert condition to one or more of the associated supervision terminals; i) receive and respond to poll requests from one or more associated supervision terminals with which the remote terminal is in communication across one or more packet switched networks; ii) transmit alert condition to one or more of the associated supervision terminals; a monitoring device interface adapted to receive monitoring messages originating from the one or more associated monitoring devices, and to transmit acknowledgement messages to the one or more monitoring devices; wherein the remote terminal is adapted to receive messages from the or each associated supervision terminal, the message content of the messages being transmitted transparently across the network through intermediate nodes in the one or more packet switched networks and transmit captured images to an image server in response to an image transmission command from an associated supervision terminal.
Connection of drainage components (8, 11) having a first drainage component, to the surface of which a clamping spring is fastened, and a second drainage component, which is pushed over the clamping spring, wherein the clamping spring comprises a plate-shaped foot part and a spring part adjoining the latter; wherein the spring part comprises at least one claw at its free end facing away from the foot part; wherein a spring force of the clamping spring presses the at least one claw into the material of the drainage component pushed over; characterized in that the spring part is folded or bent over at an angle of more than 90° relative to the foot part and is formed by at least two spring tongues (2.1, 2.2) which are arranged adjacent to each other, extend from the foot part, can resiliently engage independently from each other and each have at least one claw at their free end facing away from the foot part. wherein the spring part comprises at least one claw at its free end facing away from the foot part; wherein a spring force of the clamping spring presses the at least one claw into the material of the drainage component pushed over; characterized in that the spring part is folded or bent over at an angle of more than 90° relative to the foot part and is formed by at least two spring tongues (2.1, 2.2) which are arranged adjacent to each other, extend from the foot part, can resiliently engage independently from each other and each have at least one claw at their free end facing away from the foot part.
A User Equipment, UE, comprising: memory to store one or more Public Land Mobile Network, PLMN, IDentities,IDs, associated with a source cell; processing circuitry coupled with the memory, the processing circuitry adapted to select a candidate cell based on a measured quality metric; decode a Master Information Block, MIB, to determine System Information Broadcast 1, SIB1, information; determine that a SIB1 message is co-located with a Discovery Reference Signal, DRS, of the candidate cell; decode the SIB1 message, based on the SIB1 information and the determination that the SIB1 message is co-located with the DRS, to determine at least one PLMN ID associated with the candidate cell; compare the at least one PLMN ID with the one or more PLMN IDs; and determine whether to perform cell reselection from the source cell to the candidate cell based on the comparison of the at least one PLMN ID with the one or more PLMN IDs. memory to store one or more Public Land Mobile Network, PLMN, IDentities,IDs, associated with a source cell; processing circuitry coupled with the memory, the processing circuitry adapted to select a candidate cell based on a measured quality metric; decode a Master Information Block, MIB, to determine System Information Broadcast 1, SIB1, information; determine that a SIB1 message is co-located with a Discovery Reference Signal, DRS, of the candidate cell; decode the SIB1 message, based on the SIB1 information and the determination that the SIB1 message is co-located with the DRS, to determine at least one PLMN ID associated with the candidate cell; compare the at least one PLMN ID with the one or more PLMN IDs; and determine whether to perform cell reselection from the source cell to the candidate cell based on the comparison of the at least one PLMN ID with the one or more PLMN IDs. select a candidate cell based on a measured quality metric; decode a Master Information Block, MIB, to determine System Information Broadcast 1, SIB1, information; determine that a SIB1 message is co-located with a Discovery Reference Signal, DRS, of the candidate cell; decode the SIB1 message, based on the SIB1 information and the determination that the SIB1 message is co-located with the DRS, to determine at least one PLMN ID associated with the candidate cell; compare the at least one PLMN ID with the one or more PLMN IDs; and determine whether to perform cell reselection from the source cell to the candidate cell based on the comparison of the at least one PLMN ID with the one or more PLMN IDs.
A frying device, comprising: a case which is hollow and includes a circular hole at its upper plate; an oil cask which is arranged passing through the circular hole and includes a circumference fixing shoulder formed at a circumference of its top and fixed at a circumference of the circular hole, a cylindrical pipe the top and bottom of which are open, and an inverted cone shaped inclined, lower plate formed at the open portion of the lower side of the cylindrical pipe, thus forming a discharge hole at a lower portion of the front side; a pair of ultrasonic wave vibration parts which are provided at a front side and a rear side of an inner lower portion of the oil cask; a pair of heater parts which are dispose at both sides of an inner lower portion of the oil cask and are configured to radiate heated air; a sediment collection container which is fixed at a lower portion of the discharge hole while communicating with the oil cask; a filtering circulation part which is disposed between the sediment collection container and the oil cask so as to filter the oil discharging from the sediment collection container and circulate back into the oil cask; and a control part which controls the ultrasonic wave vibration part, the heater parts and the filtering circulation part, wherein an operation part is connected to the control part. a case which is hollow and includes a circular hole at its upper plate; an oil cask which is arranged passing through the circular hole and includes a circumference fixing shoulder formed at a circumference of its top and fixed at a circumference of the circular hole, a cylindrical pipe the top and bottom of which are open, and an inverted cone shaped inclined, lower plate formed at the open portion of the lower side of the cylindrical pipe, thus forming a discharge hole at a lower portion of the front side; a pair of ultrasonic wave vibration parts which are provided at a front side and a rear side of an inner lower portion of the oil cask; a pair of heater parts which are dispose at both sides of an inner lower portion of the oil cask and are configured to radiate heated air; a sediment collection container which is fixed at a lower portion of the discharge hole while communicating with the oil cask; a filtering circulation part which is disposed between the sediment collection container and the oil cask so as to filter the oil discharging from the sediment collection container and circulate back into the oil cask; and a control part which controls the ultrasonic wave vibration part, the heater parts and the filtering circulation part, wherein an operation part is connected to the control part.
A method for producing a light fuel, the method comprising subjecting a raw material obtained from a renewable source to at least one C-C-coupling reaction to obtain an oxygen-containing bio-precursor composition, wherein the raw material obtained from a renewable source contains levulinic acid or a derivative thereof subjecting the oxygen-containing bio-precursor composition to a hydrodeoxygenation treatment to obtain a Dry Vapour Pressure Equivalent (DVPE) adjustment material which is a bio-hydrocarbon composition, and blending a fossil fuel, ethanol and the Dry Vapour Pressure Equivalent (DVPE) adjustment material. subjecting a raw material obtained from a renewable source to at least one C-C-coupling reaction to obtain an oxygen-containing bio-precursor composition, wherein the raw material obtained from a renewable source contains levulinic acid or a derivative thereof subjecting the oxygen-containing bio-precursor composition to a hydrodeoxygenation treatment to obtain a Dry Vapour Pressure Equivalent (DVPE) adjustment material which is a bio-hydrocarbon composition, and blending a fossil fuel, ethanol and the Dry Vapour Pressure Equivalent (DVPE) adjustment material.
A method for controlling a calculation device via a movable element that can be handled by a user to generate at least one control command associated to the vectorial orientation of the movable element, the method being implemented by a control system including a processing unit adapted to communicate with the movable element and the calculation device, the movable element including a set of sensors (31, 32, 33) adapted to supply the processing unit with first measurements, called relative measurements, and second measurements, called absolute measurements, characterizing the vectorial orientation of the movable element, the relative measurements comprising an angular variation of the movable element about at least one predetermined axis (X', Y', Z') fixed with respect to the movable element between a previous vectorial orientation (P k-1) and a current vectorial orientation (P k), the absolute measurements comprising the acceleration of the movable element at least according to the predetermined axis (X', Y', Z') and the magnitude of a magnetic field around the movable element at least according to the predetermined axis (X', Y', Z'), the method including the following steps of: - supplying an initial vectorial orientation; - taking measurements by the set of sensors (31, 32, 33) at each movement of the movable element driven by the user; - determining a first elementary vectorial orientation (P 1) of the movable element from the relative measurements and the previous vectorial orientation (P k-1); - determining a second elementary vectorial orientation (P 2) of the movable element from the absolute measurements; - determining the current vectorial orientation (P k) of the movable element from the first elementary vectorial orientation (P 1) and from the second elementary vectorial orientation (P 2); and - associating a control command to the current vectorial orientation (P k) of the movable element. - supplying an initial vectorial orientation; - taking measurements by the set of sensors (31, 32, 33) at each movement of the movable element driven by the user; - determining a first elementary vectorial orientation (P 1) of the movable element from the relative measurements and the previous vectorial orientation (P k-1); - determining a second elementary vectorial orientation (P 2) of the movable element from the absolute measurements; - determining the current vectorial orientation (P k) of the movable element from the first elementary vectorial orientation (P 1) and from the second elementary vectorial orientation (P 2); and - associating a control command to the current vectorial orientation (P k) of the movable element.
A vertical joint system (10a-d) for a surface covering panel having an upper surface which is visible when the surface covering is laid and an opposed lower surface and a plurality of sides (20, 22,24, 26) located between the upper and lower surfaces (16, 18), the vertical joint system comprising: a male part along a first of the sides (20/24), the male part having a male protrusion and an adjacent male recess; a female part along a second of the sides (22/26), the second side being opposite to the first side, the female part having a female recess and an adjacent female protrusion; the male and female parts (12, 14) being relatively configured by the female protrusion having a concave recess configured to engage the male protrusion, wherein a curved corner portion of a bottom and inner end of the male protrusion is continuously extending to a planar surface of the inner end of the male protrusion, so that during engagement of like first and second panels each provided with the vertical joint system by bringing the male part of a first panel toward the female part of the second panel in a direction perpendicular to a plane the male part while maintaining contact with the female part also moves laterally toward, then away from and subsequently toward the second panel, characterized in that the vertical joint is configured so that when the male and female parts of respective vertical joint systems are coupled together with the respective lower surfaces in a common plane, a continuous gap is provided between the inner most female surface and the outer most male surface from the datum surface to the planar surface. a male part along a first of the sides (20/24), the male part having a male protrusion and an adjacent male recess; a female part along a second of the sides (22/26), the second side being opposite to the first side, the female part having a female recess and an adjacent female protrusion; the male and female parts (12, 14) being relatively configured by the female protrusion having a concave recess configured to engage the male protrusion, wherein a curved corner portion of a bottom and inner end of the male protrusion is continuously extending to a planar surface of the inner end of the male protrusion, so that during engagement of like first and second panels each provided with the vertical joint system by bringing the male part of a first panel toward the female part of the second panel in a direction perpendicular to a plane the male part while maintaining contact with the female part also moves laterally toward, then away from and subsequently toward the second panel, characterized in that the vertical joint is configured so that when the male and female parts of respective vertical joint systems are coupled together with the respective lower surfaces in a common plane, a continuous gap is provided between the inner most female surface and the outer most male surface from the datum surface to the planar surface.
A detoxification method for obtaining a pigment compound free from acute and chronic aquatic ecotoxicity comprising at least one zinc-based component with good anticorrosive properties but high toxicity of zinc phosphate Zn 3 (PO 4) 2,0 to 4H 2 O and/or zinc oxide, characterized in that it comprises mixing zinc phosphate Zn 3 (PO 4) 2,0 to 4H 2 O with magnesium phosphate MgHPO 4,3H 2 O or mixing zinc phosphate Zn 3 (PO 4) 2,0 to 4H 2 O and zinc oxide with magnesium phosphate MgHPO 4,3H 2 O, the weight ratio between the zinc phosphate and the magnesium phosphate being approximately 90%/10%, or the weight ratio between the zinc phosphate, the magnesium phosphate, and the zinc oxide being approximately 80%/10%/10%.
A disposable wig comprising a base formed of an extremely thin sheet, hair segments implanted onto the base and an adhesive layer formed on an underside of the base, characterized in that the thickness of the base is of the order of microns( μ), the adhesive layer is formed on the entire underside of the base with a uniform thickness, having projected portions and remaining portions, the projected portions engaging the root portions of the implanted hair segments protruding from the underside of the base, and whereby the projected portions are configured to be raised toward a surface side of the base when the wig is fitted onto a human skin with said projected portions of said adhesive layer being in contact with the human skin, and the thickness of the adhesive layer is in a range of up to about 20 times greater than the thickness of the base.
Metal oxide or semimetal oxide nanoparticles having an average particle size as median D50 of from 2 to 250 nm, measured by means of dynamic light scattering on a particle analyzer LB-550 at a concentration of not more than 10% by weight of particles, with the dispersion having a maximum dynamic viscosity of 3 mPas at 25°C, characterized in that the nanoparticles have at least two different, free-radically polymerizable groups on the surface, with the at least 2 different, free-radically polymerizable groups being selected from among firstly methacryl, acryl, styryl and itaconyl groups and secondly vinyl, allyl, alkenyl and crotonyl groups.
A machine for conveying objects, the machine including: a) a base; b) a turret mounted to the base for rotation about an axis, the turret including: i) a turret mounted track extending between the base and a position proximate a boom mounting; and, ii) a turret shuttle with a gripper to grip an object, the turret shuttle mounted on the turret mounted track; c) a boom mounted to the turret at a position located away from the base, the boom extending away from the turret, whereby rotation of the turret sweeps the boom radially about the axis, the boom including: i) a boom mounted track extending therealong; and, ii) a boom shuttle with a gripper to grip an object, the boom shuttle mounted to the boom mounted track for controlled movement therealong, wherein when the turret shuttle and the boom shuttle are located proximate to the boom mounting, an object may be transferred therebetween; and, d) a carousel located proximal to the base extending around the turret and rotatable about the axis, characterised in that the carousel has a plurality of object bays (123, 125, 127, 129, 131, 133) in which may be located an object, the carousel being controllably rotatable about the axis to locate any of the object bays (123, 125, 127, 129, 131, 133) proximal to the turret mounted track for transfer of an object between the object bay (123, 125, 127, 129, 131, 133) and the turret shuttle. a) a base; b) a turret mounted to the base for rotation about an axis, the turret including: i) a turret mounted track extending between the base and a position proximate a boom mounting; and, ii) a turret shuttle with a gripper to grip an object, the turret shuttle mounted on the turret mounted track; i) a turret mounted track extending between the base and a position proximate a boom mounting; and, ii) a turret shuttle with a gripper to grip an object, the turret shuttle mounted on the turret mounted track; c) a boom mounted to the turret at a position located away from the base, the boom extending away from the turret, whereby rotation of the turret sweeps the boom radially about the axis, the boom including: i) a boom mounted track extending therealong; and, ii) a boom shuttle with a gripper to grip an object, the boom shuttle mounted to the boom mounted track for controlled movement therealong, wherein when the turret shuttle and the boom shuttle are located proximate to the boom mounting, an object may be transferred therebetween; and, i) a boom mounted track extending therealong; and, ii) a boom shuttle with a gripper to grip an object, the boom shuttle mounted to the boom mounted track for controlled movement therealong, wherein when the turret shuttle and the boom shuttle are located proximate to the boom mounting, an object may be transferred therebetween; and, d) a carousel located proximal to the base extending around the turret and rotatable about the axis,
An aerosol delivery system comprising: an aerosol delivery device and an aerosol delivery component engageable with the aerosol delivery device at an interface therebetween, the aerosol delivery component being configured to house an aerosol precursor, and the aerosol delivery component comprising a feedback element, wherein: the aerosol delivery component is associated with validity state information from which it can be determined whether the aerosol delivery component is valid for use with the aerosol delivery device; the aerosol delivery system is configured to determine from the validity state information whether the aerosol delivery component is valid for use with the aerosol delivery device; and the feedback element is configured to provide feedback to a user based on the determination of whether the aerosol delivery component is valid for use with the aerosol delivery device. the aerosol delivery component is associated with validity state information from which it can be determined whether the aerosol delivery component is valid for use with the aerosol delivery device; the aerosol delivery system is configured to determine from the validity state information whether the aerosol delivery component is valid for use with the aerosol delivery device; and the feedback element is configured to provide feedback to a user based on the determination of whether the aerosol delivery component is valid for use with the aerosol delivery device.
A method for separating full Adeno-associated virus capsids from empty AAV capsids in a buffered mixture comprising full AAV capsids and empty AAV capsids, comprising the steps of - contacting the buffered mixture with a first substrate bearing a metal affinity ligand, said metal affinity ligand having the ability to complex metal ions via three or more nitrogen atoms, - separating empty AAV capsids from full AAV capsids by eluting with a pH gradient, a salt gradient, a metal ion gradient or a combination thereof in the presence of multivalent cations bound to the metal affinity ligand to obtain a purified full AAV capsid fraction. - contacting the buffered mixture with a first substrate bearing a metal affinity ligand, said metal affinity ligand having the ability to complex metal ions via three or more nitrogen atoms, - separating empty AAV capsids from full AAV capsids by eluting with a pH gradient, a salt gradient, a metal ion gradient or a combination thereof in the presence of multivalent cations bound to the metal affinity ligand to obtain a purified full AAV capsid fraction.