mhurhangee/ep-ind-claims huggingface dataset:
On-load tap changer head for an on-load tap changer, comprising: - a first region which is formed in the on-load tap changer head and through which an insulating fluid of the on-load tap changer can flow; - a second region separated from the first region by a wall; and - a detector device for detection of increased flow speed of the insulating fluid, comprising - a flow flap which is arranged in the first region and which from a defined flow speed of the insulating fluid tilts from a first position to a second position; - a first coupling magnet which is secured to the flap and in the second position of the flow flap is disposed in the immediate vicinity of the wall; characterized by - a second coupling magnet which is arranged in the second region in the immediate vicinity of the wall; and - a switch which is arranged in the second region and which is so coupled to the second coupling magnet that tilting over of the flow flap from the first position to the second position actuates the switch. - a first region which is formed in the on-load tap changer head and through which an insulating fluid of the on-load tap changer can flow; - a second region separated from the first region by a wall; and - a detector device for detection of increased flow speed of the insulating fluid, comprising - a flow flap which is arranged in the first region and which from a defined flow speed of the insulating fluid tilts from a first position to a second position; - a first coupling magnet which is secured to the flap and in the second position of the flow flap is disposed in the immediate vicinity of the wall; characterized by - a second coupling magnet which is arranged in the second region in the immediate vicinity of the wall; and - a switch which is arranged in the second region and which is so coupled to the second coupling magnet that tilting over of the flow flap from the first position to the second position actuates the switch. - a flow flap which is arranged in the first region and which from a defined flow speed of the insulating fluid tilts from a first position to a second position; - a first coupling magnet which is secured to the flap and in the second position of the flow flap is disposed in the immediate vicinity of the wall; characterized by - a second coupling magnet which is arranged in the second region in the immediate vicinity of the wall; and - a switch which is arranged in the second region and which is so coupled to the second coupling magnet that tilting over of the flow flap from the first position to the second position actuates the switch.
A circuit (30; 40; 45; 50; 55) for biasing the bulk of a MOS transistor, characterized in that the bulk of the MOS transistor is surrounded by a well providing an electric insulation of the substrate, the circuit comprising a capacitive element (C 1) connecting the bulk of the MOS transistor to a source capable of providing an A.C. voltage (Vp) at a first value for a first time period and at a second value for a second time period shorter than half of the first time period.
A method for key generation, the method comprising: during or after a mutual authentication procedure between a user equipment and a network, generating a first symmetric key and receiving a first Diffie-Hellman public key; generating a second symmetric key based on the first Diffie-Hellman public key; and generating a session key based on both the first symmetric key and the second symmetric key; wherein generating the session key includes: concatenating the first symmetric key and the second symmetric key into a concatenated string, and inputting the concatenated string into a hash function. during or after a mutual authentication procedure between a user equipment and a network, generating a first symmetric key and receiving a first Diffie-Hellman public key; generating a second symmetric key based on the first Diffie-Hellman public key; and generating a session key based on both the first symmetric key and the second symmetric key;
A transport system for transporting preforms in a device for the blow-moulding production of prefabricated containers, wherein the transport system comprises a transport chain, the chain links of which comprise a support element for transporting the preforms, wherein the support element comprises a shaft part and a head part, and the head part comprises a head-end region that can be inserted into the orifice portion of the preform, characterized in that the head part is held on the shaft part and can be detached from the shaft part by means of actuating a first actuating element, wherein the first actuating element is arranged in the end region of the shaft part facing away from the head part.
An electronic device comprising: a metal frame including an opening at a center part of the metal frame; a metal plate included in the opening and having at least one part displaced from the metal frame; a bonding member configured to fix the metal plate to the metal frame and fill a gap between the metal frame and the metal plate; a printed circuit board configured to contact with or disposed adjacent to a surface of the metal plate; a communication module mounted on the printed circuit board and electrically connected to at least one part of the metal frame; a display configured to contact with or disposed adjacent to said surface of the metal plate or another surface of the metal plate; a first plate configured to cover at least one part of the display while forming a part of an external housing together with the metal frame; and a second plate configured to cover the opposite side of the display and form a part of the external housing together with the metal frame, wherein: the metal plate comprises at least one of an interlacing structure, a staggering structure, and an extrusion-dent structure. a metal frame including an opening at a center part of the metal frame; a metal plate included in the opening and having at least one part displaced from the metal frame; a bonding member configured to fix the metal plate to the metal frame and fill a gap between the metal frame and the metal plate; a printed circuit board configured to contact with or disposed adjacent to a surface of the metal plate; a communication module mounted on the printed circuit board and electrically connected to at least one part of the metal frame; a display configured to contact with or disposed adjacent to said surface of the metal plate or another surface of the metal plate; a first plate configured to cover at least one part of the display while forming a part of an external housing together with the metal frame; and a second plate configured to cover the opposite side of the display and form a part of the external housing together with the metal frame, wherein: the metal plate comprises at least one of an interlacing structure, a staggering structure, and an extrusion-dent structure.
A method for annealing a glass sheet, which is a method for annealing a bent glass sheet, that has a high temperature of at least a strain point and is placed on a ring-shaped forming mold, wherein the method includes a step of lifting up the glass sheet by a lift-up member to separate the glass sheet from the forming mold, characterized in that the region to be lifted up by the lift-up member is a region at least 50 mm inside from the edge of the glass sheet, and the region to be lifted up is cooled to a temperature below the strain point before the edge of the glass sheet reaches the strain point while the temperature of the edge is maintained to be at least the strain point, and thereafter, the glass sheet is lifted up by the lift-up member to anneal the glass sheet.
A current source array, comprising F rows of current source units, a first output signal cable, a second output signal cable, E first branch signal cables, and a compensation circuit, wherein both F and E are integers greater than 1; the E first branch signal cables are disposed between the F rows of current source units, and the E first branch signal cables are parallel to a row arrangement direction of the F rows of current source units; in the E first branch signal cables, one or more rows of current source units are spaced between any two adjacent first branch signal cables; in the E first branch signal cables, K first branch signal cables are connected to the first output signal cable, and E - K first branch signal cables are connected to the second output signal cable, wherein K is an integer greater than or equal to 1; a first end of the first output signal cable is configured to output a first output signal of the current source array, and a first end of the second output signal cable is configured to output a second output signal of the current source array; both of a second end of the first output signal cable and a second end of the second output signal cable are connected to the compensation circuit; and the compensation circuit is configured to compensate for a difference of load impedance between a plurality of rows of current source units adjacent to the first branch signal cable. the E first branch signal cables are disposed between the F rows of current source units, and the E first branch signal cables are parallel to a row arrangement direction of the F rows of current source units; in the E first branch signal cables, one or more rows of current source units are spaced between any two adjacent first branch signal cables; in the E first branch signal cables, K first branch signal cables are connected to the first output signal cable, and E - K first branch signal cables are connected to the second output signal cable, wherein K is an integer greater than or equal to 1; a first end of the first output signal cable is configured to output a first output signal of the current source array, and a first end of the second output signal cable is configured to output a second output signal of the current source array; both of a second end of the first output signal cable and a second end of the second output signal cable are connected to the compensation circuit; and the compensation circuit is configured to compensate for a difference of load impedance between a plurality of rows of current source units adjacent to the first branch signal cable.
A composition for use in a method of treating inflammation, scarring or fibrosis in a patient in need thereof, the method comprising administering to the patient the composition, wherein the composition comprises a therapeutically effective amount of one or more peptides of six to twenty amino acid residues in length which inhibit the activity of NF kappa B and a pharmaceutically acceptable carrier, wherein the one or more peptides are selected from the group consisting of peptides comprising the sequence of CORE SEQUENCE: Xxx-Ala-Pro-Glu where Xxx is selected from the group consisting of Met, Ile, Val, Cys, Trp, Tyr, Phe, 5-methyl-Trp, allo-Ile, β-styryl-Ala, naphthyl-Ala, diphenyl-Ala, α-aminobutyric acid, α-aminocaproic acid, norleucine, α-amino-2-phenylbutyric acid, α-Amino-1-naphthalene-propanoic acid, β-cyclohexyl-Ala, dehydroalanine, and β- tert -butyl-Ala; wherein the one or more peptides excludes peptides comprising LIAPEA (SEQ ID NO:061). where Xxx is selected from the group consisting of Met, Ile, Val, Cys, Trp, Tyr, Phe, 5-methyl-Trp, allo-Ile, β-styryl-Ala, naphthyl-Ala, diphenyl-Ala, α-aminobutyric acid, α-aminocaproic acid, norleucine, α-amino-2-phenylbutyric acid, α-Amino-1-naphthalene-propanoic acid, β-cyclohexyl-Ala, dehydroalanine, and β- tert -butyl-Ala; wherein the one or more peptides excludes peptides comprising LIAPEA (SEQ ID NO:061).
An indoor unit of an air conditioner, comprising: a chassis comprising: a condensate area; and an effluent area for receiving effluent, wherein the effluent area is adjacent to the condensate area and positioned above the condensate area, wherein a portion of a bottom of the effluent area adjacent to the condensate area defines a water outlet hole; a washing module for cleaning a filter screen of the indoor unit of an air conditioner, wherein the washing module is mounted on the chassis and comprises a discharge pipe extending into the effluent area; a water retaining structure arranged between the condensate area and the effluent area; an outlet pipe in communication with the water outlet hole, characterized in that the bottom of the effluent area defines an avoiding groove, a side of the avoiding groove facing the condensate area defines a notch communicated with the condensate area, and a side of the avoiding groove opposite to the condensate area defines the water outlet hole, and wherein the water retaining structure is extended into the avoiding groove, wherein a top end of the water retaining structure is connected to the washing module; and a lower end of the water retaining structure is in front of the water outlet hole and configured to shield a part of the water outlet hole. a chassis comprising: a condensate area; and an effluent area for receiving effluent, wherein the effluent area is adjacent to the condensate area and positioned above the condensate area, wherein a portion of a bottom of the effluent area adjacent to the condensate area defines a water outlet hole; a condensate area; and an effluent area for receiving effluent, wherein the effluent area is adjacent to the condensate area and positioned above the condensate area, wherein a portion of a bottom of the effluent area adjacent to the condensate area defines a water outlet hole; a washing module for cleaning a filter screen of the indoor unit of an air conditioner, wherein the washing module is mounted on the chassis and comprises a discharge pipe extending into the effluent area; a water retaining structure arranged between the condensate area and the effluent area; an outlet pipe in communication with the water outlet hole, characterized in that the bottom of the effluent area defines an avoiding groove, a side of the avoiding groove facing the condensate area defines a notch communicated with the condensate area, and a side of the avoiding groove opposite to the condensate area defines the water outlet hole, and wherein the water retaining structure is extended into the avoiding groove, wherein a top end of the water retaining structure is connected to the washing module; and a lower end of the water retaining structure is in front of the water outlet hole and configured to shield a part of the water outlet hole.
Method for programming a safety control device that is designed to switch on and switch off an electrical load safely according to a safety regulation, switching inputs and/or switching outputs of the safety control device being logically linked, the logical link comprising a functional module (38, 40) having a plurality of outputs, an output value for each output being formed by the functional module (38, 40) on the basis of at least one parameter value, a plurality of selection parameter values being stored in the functional module (38, 40), characterised in that the functional module (38, 40) comprises a parameter selection input and the parameter value is selected from the selection parameter values on the basis of the input value at the parameter selection input.
A method for reconfiguration in a wireless mesh network (10a, 10b, 10c, 10d, 10e) served by at least one network node (11a, 11b), the method being performed by a first network device (i2d) having a first metric, the method comprising: maintaining an operative connection to one of the at least one network node (11a, 11b) via a link to a second network device, the second network device having a better metric than the first metric; acquiring an indication that the first network device is to be detached from the operative connection to the network node by means of a radio link failure occurring on the link between the first network device (i2d) and the second network device; scanning for, and establishing an operative connection to, a further second network device having a metric for establishing a new operative connection to said one of the at least one network node; updating the first metric based on the metric of the further second network device; and disconnecting the operative connection to the second network device after having verified that the operative connection to the further second network device is to be established. maintaining an operative connection to one of the at least one network node (11a, 11b) via a link to a second network device, the second network device having a better metric than the first metric; acquiring an indication that the first network device is to be detached from the operative connection to the network node by means of a radio link failure occurring on the link between the first network device (i2d) and the second network device; scanning for, and establishing an operative connection to, a further second network device having a metric for establishing a new operative connection to said one of the at least one network node; updating the first metric based on the metric of the further second network device; and disconnecting the operative connection to the second network device after having verified that the operative connection to the further second network device is to be established.
Porous mineral-based material comprising closed pores, wherein the material is selected from the group of expanded perlite, expanded vermiculite, expanded shale and mixtures thereof, characterized in that the closed pores are filled completely with a thermally insulating gas, wherein the gas is selected from the group of noble gases and carbon dioxide and mixtures thereof.
A device for breaking up a material stream to be supplied of composite materials and interlocking structures containing composite materials, and also mixtures thereof into individual fractions of the composite materials, wherein the device comprises: a rotor and a stator inside a reactor, which are rotatable relative to one another and which define an annular space between them, in which the material stream to be supplied can be mechanically broken up by the interaction of rotor or stator tools (6, 7) attached to the rotor or stator, a drive unit for driving the rotor, a material inlet for feeding the material stream to be supplied into the interior of the reactor, a material outlet for discharging a material stream mechanically broken up between the rotor and stator and to be discharged from the interior of the reactor, characterised in that the material inlet into the interior of the reactor is designed as an injector mixer, in which the material stream to be supplied can be acted upon and mixed with a fluid, a curved disc is fitted between the injector mixer on the one hand and the rotor and stator on the other hand inside the reactor in order to deflect the material stream to be fed through the injector mixer in a targeted manner into the annular region between the rotor and stator. a rotor and a stator inside a reactor, which are rotatable relative to one another and which define an annular space between them, in which the material stream to be supplied can be mechanically broken up by the interaction of rotor or stator tools (6, 7) attached to the rotor or stator, a drive unit for driving the rotor, a material inlet for feeding the material stream to be supplied into the interior of the reactor, a material outlet for discharging a material stream mechanically broken up between the rotor and stator and to be discharged from the interior of the reactor, characterised in that the material inlet into the interior of the reactor is designed as an injector mixer, in which the material stream to be supplied can be acted upon and mixed with a fluid, a curved disc is fitted between the injector mixer on the one hand and the rotor and stator on the other hand inside the reactor in order to deflect the material stream to be fed through the injector mixer in a targeted manner into the annular region between the rotor and stator.
A blower housing for an engine that includes a cooling fan rotatable about an axis and at least one engine cylinder assembly having a cylinder and a cylinder head, the blower housing comprising: a first housing portion, suitable to be coupled to the engine, having an intake opening through which air may flow, and having a wall portion defining an access opening therein; a removable housing portion coupled to the first housing portion and having first and second sidewalls that, when mounted to the engine cylinder assembly, direct air toward the at least one engine cylinder assembly, the first sidewall overlying, covering and closing the access opening; and a quick-release fastener coupling the removable housing portion and the first housing portion. a first housing portion, suitable to be coupled to the engine, having an intake opening through which air may flow, and having a wall portion defining an access opening therein; a removable housing portion coupled to the first housing portion and having first and second sidewalls that, when mounted to the engine cylinder assembly, direct air toward the at least one engine cylinder assembly, the first sidewall overlying, covering and closing the access opening; and a quick-release fastener coupling the removable housing portion and the first housing portion.
A portable air purifier comprising: a case (120, 520) having an accommodation space, a front side and a rear side of the accommodation space being open; a fan assembly (130, 135) accommodated in the accommodation space and including a blower fan (131, 136); a fan cover accommodated in the accommodation space and disposed in front of the fan assembly (130, 135), the fan cover is coupled to the fan assembly (130, 135); and a filter module accommodated in the accommodation space and is disposed behind the fan assembly (130, 135), wherein the case (120, 520) includes a first support surface which protrudes from an inner circumferential surface of the case (120, 520) and is disposed behind the fan cover to face the fan cover and a second support surface which protrudes from the inner circumferential surface of the case (120, 520) and is disposed in front of the at least a portion of the filter module to face at least a portion of the filter module, and the fan cover and the filter module are coupled in a front-rear direction with the first support surface and the second support surface interposed therebetween and are fixed to the case (120, 520). a case (120, 520) having an accommodation space, a front side and a rear side of the accommodation space being open; a fan assembly (130, 135) accommodated in the accommodation space and including a blower fan (131, 136); a fan cover accommodated in the accommodation space and disposed in front of the fan assembly (130, 135), the fan cover is coupled to the fan assembly (130, 135); and a filter module accommodated in the accommodation space and is disposed behind the fan assembly (130, 135), wherein the case (120, 520) includes a first support surface which protrudes from an inner circumferential surface of the case (120, 520) and is disposed behind the fan cover to face the fan cover and a second support surface which protrudes from the inner circumferential surface of the case (120, 520) and is disposed in front of the at least a portion of the filter module to face at least a portion of the filter module, and the fan cover and the filter module are coupled in a front-rear direction with the first support surface and the second support surface interposed therebetween and are fixed to the case (120, 520).