mhurhangee/patent-ind-claim-en huggingface dataset:
Insulation screw adapted to be inserted by a mounting device into insulation material, where the insulation screw comprises a body provided with at least one thread , where the tip of the body is pointed , and where the cross section of the head is equal to or smaller than the cross section of the body , characterized in that the lead pitch of the at least one thread of the insulation screw is at least 30 millimetres.
A method for forming a first panel for an assembled product, such as a furniture product, wherein the method comprises: • displacing the first panel in a feeding direction by a conveyor through a first edge machine , • working, by a first tool of the first edge machine , on a first edge of the first panel to obtain a decided location of the first edge , • attaching, by a second tool of the first edge machine , a covering material , such as a laminate strip, a thermoplastic strip or a veneer strip, on the first edge , • forming a first edge groove , by a third tool of the first edge machine , along the first edge and on a first main surface of the first panel , wherein the first edge groove is configured to be a part of a locking device, • positioning of the first panel by a positioning device, such that the first panel is at a same position relative the conveyor at least between said attaching of the covering material by the second tool and said forming of the first edge groove by the third tool , and • wherein the working by the first tool is performed before the attaching of the covering material by the second tool , and the attaching of the covering material by the second tool is performed before the forming the first edge groove by the third tool . • displacing the first panel in a feeding direction by a conveyor through a first edge machine , • working, by a first tool of the first edge machine , on a first edge of the first panel to obtain a decided location of the first edge , • attaching, by a second tool of the first edge machine , a covering material , such as a laminate strip, a thermoplastic strip or a veneer strip, on the first edge , • forming a first edge groove , by a third tool of the first edge machine , along the first edge and on a first main surface of the first panel , wherein the first edge groove is configured to be a part of a locking device, • positioning of the first panel by a positioning device, such that the first panel is at a same position relative the conveyor at least between said attaching of the covering material by the second tool and said forming of the first edge groove by the third tool , and • wherein the working by the first tool is performed before the attaching of the covering material by the second tool , and the attaching of the covering material by the second tool is performed before the forming the first edge groove by the third tool .
An open roof construction for a vehicle, comprising at least one cover capable of closing an opening in a fixed roof of the vehicle, the at least one cover comprising a light emitting layer capable of guiding light from a longitudinal edge of the light emitting layer , substantially parallel to a longitudinal direction of the vehicle, towards a main surface and capable of emitting light from a main surface of the light emitting layer towards an interior space of the vehicle, the cover further comprising a light device for emitting light into the light emitting layer , the light device comprising at least one light source and a light guide for guiding the light from the light source to the edge of the light emitting layer , characterized in that the light guide is formed by a bundle of light fibres existing of several light fibres, wherein the light fibres of the bundle of light fibres at a first end are accumulated closely together and are fixed in a first connector and wherein the first connector is positioned opposite to the light emitting surface of the light source such that the light from the light source is able to enter the light fibres and wherein each of the light fibres of the bundle of light fibres , at a second end is fixed at distances X adjacent to each other in a second connector for holding the second end of the light fibres in a perpendicular direction with regard to the longitudinal edge of the light emitting layer to enable the light from the light fibres to enter the edge of the light emitting layer , the fibres extending in a bundle from the first connector in a longitudinal direction along the longitudinal edge of the light emitting layer and each fibre of the bundle branches off the bundle towards the second connector to which it is fixed in the perpendicular direction with regard to the longitudinal edge of the light emitting layer .
An implant for increasing a cross-sectional area of a body lumen, comprising a scaffolding with opposing first and second tissue-engaging portions and a bi-directional expansion member comprising a shaft , a housing and a driving element , the bi-directional expansion member having a diameter, the bi-directional expansion member being configured to transition between a compressed configuration having a reduced distance between the first and second tissue-engaging portions and a deployed configuration having an increased distance between the tissue-engaging portions , the first tissue-engaging portion of the bi-directional expansion member being secured to a first end of the shaft , the shaft being configured in a telescoping arrangement within the housing of the bi-directional expansion member , the housing having an open first end and a closed second end, the second tissue-engaging portion being secured to the closed second end of the housing , the shaft being positioned coaxially within the housing and the driving element being positioned coaxially within the housing , the driving element being secured to a second end of the shaft for biasing the shaft outwards from the housing along a longitudinal axis of the shaft , each of the tissue-engaging portions having a lateral plate providing an increased surface area relative to the diameter of the expansion member in a direction perpendicular to the longitudinal axis of the shaft .
A centrifugal compressor , comprising: a first impeller provided in a main refrigerant flow path (F); a second impeller provided in the main refrigerant flow path (F) downstream of the first impeller ; a recirculation flow path (R) provided between a first location and a second location along the main refrigerant flow path (F), the first location being downstream of the second location , the second location being downstream of the first impeller ; and wherein the compressor includes an outlet volute downstream of the second impeller , the first location being adjacent the outlet volute . a first impeller provided in a main refrigerant flow path (F); a second impeller provided in the main refrigerant flow path (F) downstream of the first impeller ; a recirculation flow path (R) provided between a first location and a second location along the main refrigerant flow path (F), the first location being downstream of the second location , the second location being downstream of the first impeller ; and wherein the compressor includes an outlet volute downstream of the second impeller , the first location being adjacent the outlet volute .
A method of missed call notification, the method comprising: detecting a missed call from a calling party to a mobile device of a called party ; and sending, by a device , a notification of the missed call to one or more predefined contacts of the called party when one or more predefined conditions (320, 420. 425, 820) have been satisfied, wherein the one or more predefined conditions (320, 420. 425, 820) require that the mobile device has not been accessed by the called party within a predefined period of time, and characterized in that the one or more predefined conditions further require that the mobile device has been paged by a single access point during that predefined period of time so that it is determined that a location of the mobile device has remained the same for the predefined period of time. detecting a missed call from a calling party to a mobile device of a called party ; and sending, by a device , a notification of the missed call to one or more predefined contacts of the called party when one or more predefined conditions (320, 420. 425, 820) have been satisfied, wherein the one or more predefined conditions (320, 420. 425, 820) require that the mobile device has not been accessed by the called party within a predefined period of time, and characterized in that the one or more predefined conditions further require that the mobile device has been paged by a single access point during that predefined period of time so that it is determined that a location of the mobile device has remained the same for the predefined period of time.
An electrode comprising a metal wire and a metal coil , wherein the metal wire is arranged inside the metal coil and wherein the metal wire and the metal coil are in electrical contact, the metal coil having a plurality of turns forming an elongated coil body with a central channel along the central axis of the metal coil , wherein turns of the metal coil are separated by a gap, wherein the metal wire extends longitudinally inside the central channel, the metal wire extending through the entire coil from one end of the metal coil to the other end of the metal coil along the central axis of the metal coil , and wherein the metal coil and the metal wire are covered with a nanoporous structure comprising nickel.
A method of controlling the operation of a wind turbine comprising a rotor , a generator and at least one heat generating component , wherein the method comprises: - obtaining a temperature of the heat generating component that generates heat due to electrical losses associated with the production of electrical power by the wind turbine ; - determining the presence of a predetermined increase of the temperature of the heat generating component ; and - upon determining the presence of the predetermined temperature increase, controlling the rotational speed of the generator so as to increase the rotational speed of the generator while not increasing the electrical power output of the generator or while increasing the electrical power output of the generator at a smaller proportion than the increase in rotational speed of the generator so as to reduce the level of electrical current in the generator . - obtaining a temperature of the heat generating component that generates heat due to electrical losses associated with the production of electrical power by the wind turbine ; - determining the presence of a predetermined increase of the temperature of the heat generating component ; and - upon determining the presence of the predetermined temperature increase, controlling the rotational speed of the generator so as to increase the rotational speed of the generator while not increasing the electrical power output of the generator or while increasing the electrical power output of the generator at a smaller proportion than the increase in rotational speed of the generator so as to reduce the level of electrical current in the generator .
A system for fastening a telematic module to a structure of a motor vehicle, in particular to the roof of a motor vehicle, comprising: - a telematic module having a closed outer casing and containing at least one first connector for receiving signals and at least one electronic component for processing said signals; and - a block for supporting said module, which is to be fixed to said structure of the motor vehicle and is equipped with a second connector designed for connection to said first connector, wherein said first and second connectors have a configuration of a male-female type that defines a single direction (Z, Z1) of mutual connection for said first and second connectors; - at least one coupling element and a respective receiving seat , the former carried by said block and the latter carried by said module, or vice versa, which are to be coupled together as a result of a movement of said module and said supporting block towards one another in said direction (Z, Z1); wherein said coupling element comprises a lateral projection or recess , said system being characterized in that said supporting block or said module has a manually operable locking member , which carries an interference element and is mobile in a direction transverse to said single direction of connection, between an inactive position, in which said coupling element is allowed to fit into said seat , and an active position, in which said interference element engages said coupling element fitted into said seat at said lateral projection or recess , thus preventing extraction of said coupling element from said seat; wherein said locking member has on itself at least two localised surface features for identifying said active and inactive positions. - a telematic module having a closed outer casing and containing at least one first connector for receiving signals and at least one electronic component for processing said signals; and - a block for supporting said module, which is to be fixed to said structure of the motor vehicle and is equipped with a second connector designed for connection to said first connector, - at least one coupling element and a respective receiving seat , the former carried by said block and the latter carried by said module, or vice versa, which are to be coupled together as a result of a movement of said module and said supporting block towards one another in said direction (Z, Z1);
A method performed by a network node , the method comprising: receiving , from a first wireless device , a scheduling request to schedule transmission of a first type of data in a mini-slot, wherein the scheduling request is received in a first mini-slot, m, wherein the received scheduling request is a Ultra Reliable Low Latency Communications Scheduling Request, URLLC-SR, message; identifying ongoing and upcoming slot transmission from at least one second wireless device, wherein said identifying includes determining that said w second wireless device has a previously scheduled transmission of a second type of data in a slot overlapping with the requested mini-slot; transmitting , to the second wireless device , a first control message in a mini-slot m+k, where k is greater than or equal to 1, said first control message is a Downlink Control Information, DCI, message indicating to cancel transmission of the second type of data that overlaps with the requested mini-slot; and receiving , from the first wireless device, the first type of data in the requested mini-slot, wherein the first type of data is received in the requested mini-slot m+k+l, where l is greater than or equal to 1. receiving , from a first wireless device , a scheduling request to schedule transmission of a first type of data in a mini-slot, wherein the scheduling request is received in a first mini-slot, m, wherein the received scheduling request is a Ultra Reliable Low Latency Communications Scheduling Request, URLLC-SR, message; identifying ongoing and upcoming slot transmission from at least one second wireless device, wherein said identifying includes determining that said w second wireless device has a previously scheduled transmission of a second type of data in a slot overlapping with the requested mini-slot; transmitting , to the second wireless device , a first control message in a mini-slot m+k, where k is greater than or equal to 1, said first control message is a Downlink Control Information, DCI, message indicating to cancel transmission of the second type of data that overlaps with the requested mini-slot; and receiving , from the first wireless device, the first type of data in the requested mini-slot, wherein the first type of data is received in the requested mini-slot m+k+l, where l is greater than or equal to 1.
A rotor blade with a leading edge and a trailing edge , wherein - the rotor blade is designed and configured for being exposed to a fluid flowing substantially from the leading edge to the trailing edge , - the rotor blade comprises at least three sensors designed for detecting flow characteristics of the fluid and providing respective sensor signals, wherein the sensors are arranged in a line with a non-uniform spacing to adjacent sensors , and - the rotor blade further comprises at least one actuator for producing an anti-noise signal based on a sensor signal, - the sensors and the actuator are arranged at the surface of the rotor blade , and - the actuator is arranged and prepared such that flow-induced edge noise of the rotor blade , which is generated by the fluid, is at least partly cancelled out by the anti-noise signal . - the rotor blade is designed and configured for being exposed to a fluid flowing substantially from the leading edge to the trailing edge , - the rotor blade comprises at least three sensors designed for detecting flow characteristics of the fluid and providing respective sensor signals, wherein the sensors are arranged in a line with a non-uniform spacing to adjacent sensors , and - the rotor blade further comprises at least one actuator for producing an anti-noise signal based on a sensor signal, - the sensors and the actuator are arranged at the surface of the rotor blade , and - the actuator is arranged and prepared such that flow-induced edge noise of the rotor blade , which is generated by the fluid, is at least partly cancelled out by the anti-noise signal .
Method for the manufacture of a formulation, of a coating or of a shaped material comprising the steps of: i) providing a metal or a metal alloy in liquid form, said metal or metal alloy comprising or consisting of stainless steel; ii) spraying the metal or metal alloy of step i) through a stream of gas under pressure to obtain spherical or ellipsoidal solid metal particles; iii) mixing the solid metal particles from the previous step ii) and at least a fluoropolymer to obtain said formulation; iv) optionally applying the formulation of step iii) to a surface to obtain said coating, or optionally shaping said formulation to obtain said shaped material; said method being characterized in that said fluoropolymer is in the form of a homo-polymer of tetrafluoroethylene (TFE), or in the form of a co-polymer comprising TFE monomer and one or more further fluorinated monomers in a quantity equal to or less than 2% by weight with respect to the total weight of TFE, and in that said fluoropolymer is present in the formulation in granular form. i) providing a metal or a metal alloy in liquid form, said metal or metal alloy comprising or consisting of stainless steel; ii) spraying the metal or metal alloy of step i) through a stream of gas under pressure to obtain spherical or ellipsoidal solid metal particles; iii) mixing the solid metal particles from the previous step ii) and at least a fluoropolymer to obtain said formulation; iv) optionally applying the formulation of step iii) to a surface to obtain said coating, or optionally shaping said formulation to obtain said shaped material;
Vehicle add-on part having an integrated camera module , which is a front window, a rear window, a side window, a roof panel, a trim strip, a bumper, a sill, a spoiler, a lamp cover, or a panel, comprising: - a cover with an outer side (I) and an inner side (II), wherein the cover consists, at least in sections, of a transparent thermoplastic material (1.1); - a carrier part that is arranged on the inner side (II) of the cover and in which a camera module is arranged; wherein the cover has, on the inner side (II), a local thickening and/or a local thinning of the transparent thermoplastic material (1.1); and wherein the camera module includes at least one camera lens and is arranged in the carrier part such that the at least one camera lens is arranged directly opposite the local thickening and/or the local thinning , wherein i) the transparent thermoplastic material (1.1) of the cover reaches all the way to the camera lens in the region of the local thickening and/or thinning such that the inner side of the cover is connected almost flush with the camera lens , or ii) the transparent thermoplastic material (1.1) is connected in a materially integral manner to the at least one camera lens in the region of the local thickening and/or the local thinning . - a cover with an outer side (I) and an inner side (II), wherein the cover consists, at least in sections, of a transparent thermoplastic material (1.1); - a carrier part that is arranged on the inner side (II) of the cover and in which a camera module is arranged; i) the transparent thermoplastic material (1.1) of the cover reaches all the way to the camera lens in the region of the local thickening and/or thinning such that the inner side of the cover is connected almost flush with the camera lens , or ii) the transparent thermoplastic material (1.1) is connected in a materially integral manner to the at least one camera lens in the region of the local thickening and/or the local thinning .
An information processing apparatus comprising: a first means , configured to provide a plurality of virtual network functions, VNFs, configured to each execute communication processing, each VNF operating on a virtual machine; a second means configured to forward a received packet to a VNF associated with a communication path to which the received packet belongs, among the plurality of VNFs; and a third means configured to connect a plurality of shared databases with the plurality of VNFs, wherein each of the shared databases stores communication status related to the communication path corresponding to each VNF allocated to the respective shared database, wherein each of the shared databases corresponds to a VNF type; wherein the third means is configured to, in response to migrating a first VNF among the plurality of VNFs to another virtual machine, establish a connection between the first VNF and a first shared database among the plurality of shared databases, wherein the third means is configured to select the first shared database depending on the type of the first VNF. a first means , configured to provide a plurality of virtual network functions, VNFs, configured to each execute communication processing, each VNF operating on a virtual machine; a second means configured to forward a received packet to a VNF associated with a communication path to which the received packet belongs, among the plurality of VNFs; and a third means configured to connect a plurality of shared databases with the plurality of VNFs, wherein each of the shared databases stores communication status related to the communication path corresponding to each VNF allocated to the respective shared database, wherein each of the shared databases corresponds to a VNF type; wherein the third means is configured to, in response to migrating a first VNF among the plurality of VNFs to another virtual machine, establish a connection between the first VNF and a first shared database among the plurality of shared databases, wherein the third means is configured to select the first shared database depending on the type of the first VNF.