mhurhangee/patent-ind-claim-en huggingface dataset:
Connection part with integrated additional functions including screw-connection mounting, top-hat rail mounting and reliable earthing connection for the connection of a component to a holding device, in particular in a switchgear cabinet or an open switch panel, wherein the connection part is also designed in one piece taking into account an integrated additional function in the form of a cable-free earthing function, wherein the connection part is manufactured from an electrically conductive material and has connection contours, wherein the connection contours comprise a contact tongue for electrical contact-connection, a spring element and claws in a central region , arranged in a first plane, of the connection part, and wherein the connection part has projections which i) adjoin the two ends of the central region , ii) are arranged in a second plane, which is formed parallel to the first plane, and iii) have recesses via which connection in the form of a screw connection is possible. wherein the connection part is manufactured from an electrically conductive material and has connection contours, wherein the connection contours comprise a contact tongue for electrical contact-connection, a spring element and claws in a central region , arranged in a first plane, of the connection part, and wherein the connection part has projections which i) adjoin the two ends of the central region , ii) are arranged in a second plane, which is formed parallel to the first plane, and iii) have recesses via which connection in the form of a screw connection is possible.
A method of fabricating a wearable device having one or more integrated electronic components, comprising the steps of: providing (310;410) a substrate by forming a mixture of an elastomeric material and at least one metal oxide additive in a predetermined ratio and curing or molding the mixture to form the substrate, wherein the elastomeric material comprises a durometer equal to or less than 80 Shore A; forming (320;420;430) electrical circuitry within the substrate by structuring one or more electrically conductive traces and plating the one or more electrically conductive traces, said forming involving activating one or more parts of the elastomeric material by laser etching to enable the plating of the one or more electrically conductive traces; and providing the electrical circuitry with a physiological electrode sensor (108A;108B), wherein the sensor is configured to come in direct contact with skin of an individual. providing (310;410) a substrate by forming a mixture of an elastomeric material and at least one metal oxide additive in a predetermined ratio and curing or molding the mixture to form the substrate, wherein the elastomeric material comprises a durometer equal to or less than 80 Shore A; forming (320;420;430) electrical circuitry within the substrate by structuring one or more electrically conductive traces and plating the one or more electrically conductive traces, said forming involving activating one or more parts of the elastomeric material by laser etching to enable the plating of the one or more electrically conductive traces; and providing the electrical circuitry with a physiological electrode sensor (108A;108B), wherein the sensor is configured to come in direct contact with skin of an individual.
A dental superstructure comprising a screw-channel with a first mouth , through which screw-channel a screw member is to be inserted, and a screw member seat with a second mouth , for providing support to the head of said screw member during fixation of said dental superstructure to a dental implant through said second mouth , whereby a communication is obtained between said first mouth and said second mouth , wherein at least one central axis of said screw-channel and a central axis of said second mouth do not coincide, the dental superstructure is manufactured with integrated spacer elements, milled from one single-piece blank, such that the dental superstructure obtains a main body and the spacer elements, wherein said main body and said spacer elements are integrated, wherein the term integrated means that the dental superstructure, comprising the main body, and the spacer elements are consisting of one piece of material, such that no interface is present in between said superstructure and said spacer elements, such that when the dental superstructure is applied the spacer elements will be cooperating with dental implants, wherein said screw member seat is integrated with said dental superstructure.
Method for improved corrosion inhibition of metal in a system, in which system the metal is in contact with water, and a corrosion inhibitor inhibits a corrosion of the metal, wherein a voltage is applied between the metal and an auxiliary electrode, which voltage changes time-dependently after being switched on and before being switched off within a passivation region of the metal in said corrosion inhibitor, the passivation region being a region of voltage in which the corrosion inhibitor effects an inhibition of corrosion of the metal, wherein the metal is copper, and wherein the corrosion inhibitor comprises or consists of Benzotriazole, BTA, or a derivative of Benzotriazole, or a mixture of Benzotriazole, BTA, and Triethanolamine, TEA, or a mixture of a derivative of Benzotriazole and Triethanolamine, wherein the maximum voltage applied is 0.4 V, wherein the minimum voltage applied is -0.8 V wherein the voltage sweeps between the minimum voltage and the maximum voltage at least 2 times. wherein a voltage is applied between the metal and an auxiliary electrode, which voltage changes time-dependently after being switched on and before being switched off within a passivation region of the metal in said corrosion inhibitor, the passivation region being a region of voltage in which the corrosion inhibitor effects an inhibition of corrosion of the metal, wherein the metal is copper, and wherein the corrosion inhibitor comprises or consists of Benzotriazole, BTA, or a derivative of Benzotriazole, or a mixture of Benzotriazole, BTA, and Triethanolamine, TEA, or a mixture of a derivative of Benzotriazole and Triethanolamine, wherein the maximum voltage applied is 0.4 V, wherein the minimum voltage applied is -0.8 V wherein the voltage sweeps between the minimum voltage and the maximum voltage at least 2 times.
A sheet molding compound comprising a reinforcing fiber and a resin composition, having a weight content of the reinforcing fiber of 40% or more and 60% or less, having a porosity of 5% by volume or more and 30% by volume or less, and satisfying the following formulas in dynamic viscoelasticity measurement at 25°C: 10 5 Pa ≤ G ′ s ≤ 10 9 Pa 1 ≤ G ′ s / G " s ≤ 5 G'(s): Storage modulus [Pa] of sheet molding compound at 25°C G"(s): Loss modulus [Pa] of sheet molding compound at 25°C, wherein the resin composition is a thermosetting resin composition, and the resin composition comprises a component (A), and a component (B): component (A): an isocyanate compound component (B): an epoxy resin having one or more hydroxyl groups and two or more epoxy groups in one molecule, wherein the component (A) and the component (B) in the resin composition satisfy the following formula: 1 ≤ I / W ≤ 2 I: Number of isocyanate groups of component (A) in resin composition W: Total number of hydroxyl groups in resin composition, Wherein porosity, storage modulus G' (s) and loss modulus G"(s) are measured by the methods as described in the description. G'(s): Storage modulus [Pa] of sheet molding compound at 25°C G"(s): Loss modulus [Pa] of sheet molding compound at 25°C, wherein the resin composition is a thermosetting resin composition, and the resin composition comprises a component (A), and a component (B): component (A): an isocyanate compound component (B): an epoxy resin having one or more hydroxyl groups and two or more epoxy groups in one molecule, component (A): an isocyanate compound component (B): an epoxy resin having one or more hydroxyl groups and two or more epoxy groups in one molecule, wherein the component (A) and the component (B) in the resin composition satisfy the following formula: 1 ≤ I / W ≤ 2 I: Number of isocyanate groups of component (A) in resin composition W: Total number of hydroxyl groups in resin composition, Wherein porosity, storage modulus G' (s) and loss modulus G"(s) are measured by the methods as described in the description. I: Number of isocyanate groups of component (A) in resin composition W: Total number of hydroxyl groups in resin composition, Wherein porosity, storage modulus G' (s) and loss modulus G"(s) are measured by the methods as described in the description.
A roll making apparatus comprising a frame with - a feed conveyor for advancing a length of a web, or interleaved sections of a length of a web, to be wound-up as a roll , - a subsection (20") with: - a first spindle support (21") mounted to rotate and carrying a plurality of parallel elongated spindles , each spindle mounted to rotate relative to said first spindle support (21"), for winding up thereon said length of a web, or interleaved sections of a length of a web, - - said rotation of said first spindle support (21") and of said spindles being about a respective axis perpendicular to, or essentially perpendicular to, said advancing, - said spindles being movable between a retracted position, with a respective distal end thereof closer to said first spindle support (21"), and an extended position, - a roll engaging face configured to engage a roll carried by a spindle , upon said spindle carrying said roll moving to said retracted position, to move said roll relative to said spindle , and - a gripping device or a discharge conveyor , such as a chute or belt conveyor, for moving and/or conveying rolls discharged from said spindle upon said spindles moving to said retracted position characterised in - said spindles having along the length thereof apertures for pressurized air exit and/or for applying a vacuum. - a feed conveyor for advancing a length of a web, or interleaved sections of a length of a web, to be wound-up as a roll , - a subsection (20") with: - a first spindle support (21") mounted to rotate and carrying a plurality of parallel elongated spindles , each spindle mounted to rotate relative to said first spindle support (21"), for winding up thereon said length of a web, or interleaved sections of a length of a web, - a first spindle support (21") mounted to rotate and carrying a plurality of parallel elongated spindles , each spindle mounted to rotate relative to said first spindle support (21"), for winding up thereon said length of a web, or interleaved sections of a length of a web, - - said rotation of said first spindle support (21") and of said spindles being about a respective axis perpendicular to, or essentially perpendicular to, said advancing, - said spindles being movable between a retracted position, with a respective distal end thereof closer to said first spindle support (21"), and an extended position, - a roll engaging face configured to engage a roll carried by a spindle , upon said spindle carrying said roll moving to said retracted position, to move said roll relative to said spindle , and - a gripping device or a discharge conveyor , such as a chute or belt conveyor, for moving and/or conveying rolls discharged from said spindle upon said spindles moving to said retracted position - said spindles having along the length thereof apertures for pressurized air exit and/or for applying a vacuum.
An electric motor comprising: a stator ; a rotor , the rotor comprising a rotating shaft , a rotor core coupled to the rotating shaft , and a plurality of permanent magnets that are inserted into the rotor core and spaced apart from one another in a circumferential direction; an inertial core made of a magnetic material and spaced apart from the rotor in an axial direction; and a connection part made of a non-magnetic material and disposed between the rotor and the inertial core in the axial direction, the connection part being disposed at an axial end portion of the rotor core , wherein the connection part is a single body that comprises: a plurality of first fixing portions coupled to the axial end portion of the rotor core , a plurality of second fixing portions spaced apart from the plurality of first fixing portions in the axial direction and coupled to the inertial core , and a plurality of link portions that pairwise extend toward one another and are bent from the plurality of first fixing portions and the plurality of second fixing portions , each of the plurality of link portions connecting one of the plurality of first fixing portions to one of the plurality of second fixing portions . a stator ; a rotor , the rotor comprising a rotating shaft , a rotor core coupled to the rotating shaft , and a plurality of permanent magnets that are inserted into the rotor core and spaced apart from one another in a circumferential direction; an inertial core made of a magnetic material and spaced apart from the rotor in an axial direction; and a connection part made of a non-magnetic material and disposed between the rotor and the inertial core in the axial direction, the connection part being disposed at an axial end portion of the rotor core , wherein the connection part is a single body that comprises: a plurality of first fixing portions coupled to the axial end portion of the rotor core , a plurality of second fixing portions spaced apart from the plurality of first fixing portions in the axial direction and coupled to the inertial core , and a plurality of link portions that pairwise extend toward one another and are bent from the plurality of first fixing portions and the plurality of second fixing portions , each of the plurality of link portions connecting one of the plurality of first fixing portions to one of the plurality of second fixing portions . a plurality of first fixing portions coupled to the axial end portion of the rotor core , a plurality of second fixing portions spaced apart from the plurality of first fixing portions in the axial direction and coupled to the inertial core , and a plurality of link portions that pairwise extend toward one another and are bent from the plurality of first fixing portions and the plurality of second fixing portions , each of the plurality of link portions connecting one of the plurality of first fixing portions to one of the plurality of second fixing portions .
A signal sending method, comprising: generating (S501), by a terminal device, orthogonal frequency division multiplexing, OFDM, symbols; and sending (S502), by the terminal device, at least two OFDM symbols to a network device in a first time unit in an uplink shared frequency band of a LTE communications system and a 5G communications system, and sending at least two OFDM symbols to the network device in a second time unit in the uplink shared frequency band of the LTE communications system and the 5G communications system, wherein phase offsets of the OFDM symbols at each sampling time point in the first time unit are equal to phase offsets of the OFDM symbols at each corresponding sampling time point in the second time unit, the phase offset of a first OFDM symbol in the first time unit is not equal to the phase offset of at least one OFDM symbol other than the first OFDM symbol in the first time unit, and duration of the first time unit is the same as duration of the second time unit. generating (S501), by a terminal device, orthogonal frequency division multiplexing, OFDM, symbols; and sending (S502), by the terminal device, at least two OFDM symbols to a network device in a first time unit in an uplink shared frequency band of a LTE communications system and a 5G communications system, and sending at least two OFDM symbols to the network device in a second time unit in the uplink shared frequency band of the LTE communications system and the 5G communications system, wherein phase offsets of the OFDM symbols at each sampling time point in the first time unit are equal to phase offsets of the OFDM symbols at each corresponding sampling time point in the second time unit, the phase offset of a first OFDM symbol in the first time unit is not equal to the phase offset of at least one OFDM symbol other than the first OFDM symbol in the first time unit, and duration of the first time unit is the same as duration of the second time unit.
A method comprising: receiving , by a portable electronic device , a first user input indicating a desired performance mode of the portable electronic device ; determining a position of the portable electronic device ; determining an ambient temperature in an environment surrounding the portable electronic device based on the determined position of the portable electronic device ; determining a device temperature mitigation threshold value based on the determined position-based ambient temperature and based on the desired performance mode; determining, by the portable electronic device using sensor readings and in response to determining that a current temperature of the portable electronic device differs from a normal temperature for the determined position-based ambient temperature, an ambient temperature value; adjusting the device temperature mitigation threshold value based on the determined ambient temperature value; and adjusting , in response to determining that the temperature of the portable electronic device has exceeded the adjusted device temperature mitigation threshold value, operation of the portable electronic device . receiving , by a portable electronic device , a first user input indicating a desired performance mode of the portable electronic device ; determining a position of the portable electronic device ; determining an ambient temperature in an environment surrounding the portable electronic device based on the determined position of the portable electronic device ; determining a device temperature mitigation threshold value based on the determined position-based ambient temperature and based on the desired performance mode; determining, by the portable electronic device using sensor readings and in response to determining that a current temperature of the portable electronic device differs from a normal temperature for the determined position-based ambient temperature, an ambient temperature value; adjusting the device temperature mitigation threshold value based on the determined ambient temperature value; and adjusting , in response to determining that the temperature of the portable electronic device has exceeded the adjusted device temperature mitigation threshold value, operation of the portable electronic device .
A device for producing plastic granulate, having - a multi-shaft screw extruder for providing a plastic melt (S); - an underwater pelletizing installation for producing from the plastic melt (S) plastic granulate (G 1 , G 2 , G 3 ) that is located in the pelletizing water (W 1 , W 2 ); characterized by - a granulate changeover unit for separating dyed plastic granulate (G 1 ) and undyed plastic granulate (G 2 ) and for separating a post-treatment into a first post-treatment circuit for the dyed plastic granulate (G 1 ) and a second post-treatment circuit for the undyed plastic granulate (G 2 ), said granulate changeover unit in a conveying direction being disposed downstream of the underwater pelletizing installation ; - a first separator installation for separating the dyed plastic granulate (G 1 ) from the pelletizing water (W 1 ), said first separator installation , which is part of the first post-treatment circuit, in the conveying direction being disposed downstream of the granulate changeover unit ; and - a second separator installation for separating the undyed plastic granulate (G 2 ) from the pelletizing water (W 2 ), said second separator installation , which is part of the second post-treatment circuit, being disposed downstream of the granulate changeover unit in the conveying direction and so as to be parallel with the first separator installation . - a multi-shaft screw extruder for providing a plastic melt (S); - an underwater pelletizing installation for producing from the plastic melt (S) plastic granulate (G 1 , G 2 , G 3 ) that is located in the pelletizing water (W 1 , W 2 ); characterized by - a granulate changeover unit for separating dyed plastic granulate (G 1 ) and undyed plastic granulate (G 2 ) and for separating a post-treatment into a first post-treatment circuit for the dyed plastic granulate (G 1 ) and a second post-treatment circuit for the undyed plastic granulate (G 2 ), said granulate changeover unit in a conveying direction being disposed downstream of the underwater pelletizing installation ; - a first separator installation for separating the dyed plastic granulate (G 1 ) from the pelletizing water (W 1 ), said first separator installation , which is part of the first post-treatment circuit, in the conveying direction being disposed downstream of the granulate changeover unit ; and - a second separator installation for separating the undyed plastic granulate (G 2 ) from the pelletizing water (W 2 ), said second separator installation , which is part of the second post-treatment circuit, being disposed downstream of the granulate changeover unit in the conveying direction and so as to be parallel with the first separator installation .
Transport system for transportation of a generator of a wind turbine , the transport system comprising: - at least one first transport wheel unit ; - at least one second transport wheel unit ; and - at least one main transport frame element for carrying the generator during the transportation of the generator ; wherein - the main transport frame element is arranged between the first transport wheel unit and the second transport wheel unit ; - the main transport frame element is connected to two tower clamp-sets for a transportation of a tower segment of a tower of the wind turbine ; - the tower clamp-sets are respectively installed on top of the first and second transport wheel units ; - the tower clamp-sets are designed such that the tower segment can be lifted off a ground during the transportation of the tower segment . - at least one first transport wheel unit ; - at least one second transport wheel unit ; and - at least one main transport frame element for carrying the generator during the transportation of the generator ; wherein - the main transport frame element is arranged between the first transport wheel unit and the second transport wheel unit ; - the main transport frame element is connected to two tower clamp-sets for a transportation of a tower segment of a tower of the wind turbine ; - the tower clamp-sets are respectively installed on top of the first and second transport wheel units ; - the tower clamp-sets are designed such that the tower segment can be lifted off a ground during the transportation of the tower segment .