mhurhangee/ep-ind-claims huggingface dataset:
A process for repairing a multicoat paint system having defects, comprising the application of a coating composition in the region of the defects, curing the coating composition to produce a cured coating layer and then sanding the cured coating layer, whereby the coating composition is an aqueous two-component coating composition comprising an epoxy resin-based paint base component, and a polyamine-based curing component, wherein the paint base component comprises at least one aqueous dispersion of at least one pigment and/or filler in at least one epoxy resin, and wherein the at least one epoxy resin has (i) a maximum sedimentation rate of not more than 17 500 micrometers per hour (measured in an optical cuvette centrifuge at an acceleration of 2050 g, solids diluted to 30% with water) and a glass transition temperature of less than 0°C (measured by means of dynamic differential calorimetry, heating rate 10 K/min, 2nd measurement run), or (ii) a maximum sedimentation rate of at least 12 500 micrometers per hour and a glass transition temperature of at least 0°C. an epoxy resin-based paint base component, and a polyamine-based curing component, wherein the paint base component comprises at least one aqueous dispersion of at least one pigment and/or filler in at least one epoxy resin, and wherein the at least one epoxy resin has (i) a maximum sedimentation rate of not more than 17 500 micrometers per hour (measured in an optical cuvette centrifuge at an acceleration of 2050 g, solids diluted to 30% with water) and a glass transition temperature of less than 0°C (measured by means of dynamic differential calorimetry, heating rate 10 K/min, 2nd measurement run), or (ii) a maximum sedimentation rate of at least 12 500 micrometers per hour and a glass transition temperature of at least 0°C. (i) a maximum sedimentation rate of not more than 17 500 micrometers per hour (measured in an optical cuvette centrifuge at an acceleration of 2050 g, solids diluted to 30% with water) and a glass transition temperature of less than 0°C (measured by means of dynamic differential calorimetry, heating rate 10 K/min, 2nd measurement run), or (ii) a maximum sedimentation rate of at least 12 500 micrometers per hour and a glass transition temperature of at least 0°C.
A bellows of a gangway between two articulately connected vehicle parts (2, 3) or a bellows of the canopy of a passenger boarding bridge or stairs, wherein a track joint covering bellows is disposed on the bellows in the area of the lateral wall of the bellows, wherein at least one connection profile is provided for retaining the track joint covering bellows, wherein the connection profile is attached on the one hand to a crest of the fold or corrugation of the bellows and on the other hand to a frame profile of the track joint covering bellows having an approximately U-shaped cross-section, characterized in that the connection profile comprises a receiving sheath on its side oriented toward the track joint covering bellows, wherein the frame profile is insertable into the receiving sheath, wherein the depth of insertion of the frame profile into the receiving sheath can be defined within the maximum range of the insertion depth by means of a limiting device.
Rotor for an electrodynamic machine, in particular an electric motor, containing: - a rotor assembly with a first rotor end and a second rotor end, as well as a plurality of interconnected lamination rings, each lamination ring containing at least one web element and the web elements positioned in series forming a web, and - web insulation with at least one winding support element for receiving a rotor coil, wherein the winding support elements surround the webs of the rotor assembly and have an elongated base body with a carrier plate, wherein at least one end lamination element is provided with at least one support element, wherein the end lamination element is arranged at least partly in the winding support element and wherein the support element contains a first section and a second section, the first section extending substantially in a first plane and the second section extending substantially in a second plane perpendicular to the first plane and in the direction of a rotor end (16, 18) so that the first section of the support elements supports the webs against the axially acting forces generated by the wire tension of the winding and so that the second section of the support elements is integrated into the front end of the carrier plate of the winding support elements in order thereby to protect the ends of this carrier plate against the radially acting forces of the wire tension of the winding. - a rotor assembly with a first rotor end and a second rotor end, as well as a plurality of interconnected lamination rings, each lamination ring containing at least one web element and the web elements positioned in series forming a web, and - web insulation with at least one winding support element for receiving a rotor coil,
A system for locating the position of at least one animal within a predetermined region of space being a headlock system or milking parlor, said system comprising a. at least one identification means adapted to transmit at least one identification signal associated with said at least one animal; b. at least one locating means (1130, 1140) adapted to generate at least one location signal associated with said at least one animal; and, c. a data processing system in communication with said at least one identification means and said at least one location means (1130, 1140), adapted to analyze said signals, said analyzed signals comprising the position within said predetermined region of space of each said at least one animal as a function of time; wherein said at least one locating means comprises at least one ultra-wide-band UWB transmitter and at least one UWB receiver, wherein said at least one UWB transmitter is configured to be located inside the headlock system or milking parlor and the at least one UWB receiver is configured to be located outside of said headlock system or milking parlor, or vice versa; and the system additionally comprises an indicator mechanism such that said user can be notified that intervention is needed for at least one said animal. a. at least one identification means adapted to transmit at least one identification signal associated with said at least one animal; b. at least one locating means (1130, 1140) adapted to generate at least one location signal associated with said at least one animal; and, c. a data processing system in communication with said at least one identification means and said at least one location means (1130, 1140), adapted to analyze said signals, said analyzed signals comprising the position within said predetermined region of space of each said at least one animal as a function of time; wherein said at least one locating means comprises at least one ultra-wide-band UWB transmitter and at least one UWB receiver, wherein said at least one UWB transmitter is configured to be located inside the headlock system or milking parlor and the at least one UWB receiver is configured to be located outside of said headlock system or milking parlor, or vice versa; and the system additionally comprises an indicator mechanism such that said user can be notified that intervention is needed for at least one said animal.
A phased array transceiver element comprising a local oscillator stage for generating beamformed in-phase and quadrature local oscillator signals, said local oscillator stage comprising: a phase shifter connectable to a reference frequency source and applying a first phase shift; a primary frequency multiplier input from said phase shifter and applying a primary frequency multiplication factor; a phase-splitting arrangement input from said primary frequency multiplier and having a first output and a second output, said phase-splitting arrangement applying a second phase shift at said first output and a third phase shift at said second output; a first secondary frequency multiplier input from said first output of said phase-splitting arrangement, having an output for the in-phase local oscillator signal, and applying a secondary frequency multiplication factor; and a second secondary frequency multiplier input from said second output of said phase-splitting arrangement, having an output for the quadrature local oscillator signal, and applying said secondary frequency multiplication factor. a phase shifter connectable to a reference frequency source and applying a first phase shift; a primary frequency multiplier input from said phase shifter and applying a primary frequency multiplication factor; a phase-splitting arrangement input from said primary frequency multiplier and having a first output and a second output, said phase-splitting arrangement applying a second phase shift at said first output and a third phase shift at said second output; a first secondary frequency multiplier input from said first output of said phase-splitting arrangement, having an output for the in-phase local oscillator signal, and applying a secondary frequency multiplication factor; and a second secondary frequency multiplier input from said second output of said phase-splitting arrangement, having an output for the quadrature local oscillator signal, and applying said secondary frequency multiplication factor.
A Programmable Logic Controller, PLC, comprising: a CPU module; and an event input module for time synchronization with another Programmable Logic Controller, PLC, when an event generated from outside is to be recorded at both PLCs (1, 2), wherein the event input module comprises a first receiver, a second receiver, a memory, a controller and an interface unit, wherein the first receiver is configured to receive a signal from an outside sensor unit; characterized in that the first receiver includes a first resistor configured to limit an input current and a second resistor configured to maintain an OFF guarantee voltage; further characterized in that the second receiver is configured to receive time information from an outside time provider, wherein the time information is an Inter-Range Instrumentation Group-B (IRIG-B) signal of an RS-485 standard; the controller configured to determine event generation information by allocating the time information received from the second receiver to an event detected through a signal received from the first receiver; the memory configured to store the event generation information; and the interface unit configured to exchange the signal received from the controller with the CPU module of the PLC, wherein the interface unit includes a memory accessible by the CPU module and the controller, wherein the first receiver is such that the outside sensor unit is connected to one side of the first resistor, and the other side of the first resistor is connected to the second resistor and a photo-coupler, wherein the photo-coupler is coupled to the controller. a CPU module; and an event input module for time synchronization with another Programmable Logic Controller, PLC, when an event generated from outside is to be recorded at both PLCs (1, 2), wherein the event input module comprises a first receiver, a second receiver, a memory, a controller and an interface unit, wherein the first receiver is configured to receive a signal from an outside sensor unit; characterized in that the first receiver includes a first resistor configured to limit an input current and a second resistor configured to maintain an OFF guarantee voltage; further characterized in that the second receiver is configured to receive time information from an outside time provider, wherein the time information is an Inter-Range Instrumentation Group-B (IRIG-B) signal of an RS-485 standard; the controller configured to determine event generation information by allocating the time information received from the second receiver to an event detected through a signal received from the first receiver; the memory configured to store the event generation information; and the interface unit configured to exchange the signal received from the controller with the CPU module of the PLC, wherein the interface unit includes a memory accessible by the CPU module and the controller, wherein the first receiver is such that the outside sensor unit is connected to one side of the first resistor, and the other side of the first resistor is connected to the second resistor and a photo-coupler, wherein the photo-coupler is coupled to the controller.
PROCEDURE FOR PRODUCING IMPLANTS WITH A PERSONALISED SURFACE, comprising the following steps: - cleaning/activation of the dental implant surface by using oxygen or argon plasma for dragging organic traces and contaminants, including an oxide layer of the implant, in such a manner that sites with radicals are created and a reactive surface is generated; and - application of a liquid solution designed specifically for each patient to the reactive surface of the dental implant, wherein the liquid solution designed for each patient is one selected from a osteoinductive, osteoconductive, antibiotic, probiotic or antibacterial solution characterised in that the cleaning/activation of the dental implant surface is carried out with the implant disposed inside a vial and the application of the liquid solution to the reactive surface is carried out into the vial containing the implant. - cleaning/activation of the dental implant surface by using oxygen or argon plasma for dragging organic traces and contaminants, including an oxide layer of the implant, in such a manner that sites with radicals are created and a reactive surface is generated; and - application of a liquid solution designed specifically for each patient to the reactive surface of the dental implant, wherein the liquid solution designed for each patient is one selected from a osteoinductive, osteoconductive, antibiotic, probiotic or antibacterial solution characterised in that the cleaning/activation of the dental implant surface is carried out with the implant disposed inside a vial and the application of the liquid solution to the reactive surface is carried out into the vial containing the implant.
A method for determining time information, comprising: obtaining, by a network node, information sent by a terminal device; and determining, by the network node, at least one of the following based on the information: a first time interval between downlink scheduling and downlink data transmission, a second time interval between the downlink data transmission and sending a feedback message by the terminal device after receiving the downlink data, and a third time interval between uplink scheduling and uplink data transmission; characterized in that the information comprises information related to at least one of an operating band and a bandwidth supported by the terminal device. obtaining, by a network node, information sent by a terminal device; and determining, by the network node, at least one of the following based on the information: a first time interval between downlink scheduling and downlink data transmission, a second time interval between the downlink data transmission and sending a feedback message by the terminal device after receiving the downlink data, and a third time interval between uplink scheduling and uplink data transmission;
A constructional toy comprising a plurality of elements which can be assembled together to form a variety of three dimensional structures, said elements including: a triangular prism shaped brick element comprising a plurality of walls which define: two square sides angled relative to one another, at least one of which is provided as a male mating side having a male engagement feature which extends from the brick element; and a cavity which provides a female mating side, the cavity defined by the plurality of walls, characterised in that at least one of the square wall sides having an indented region extending into its inner surface; the cavity having a square perimeter defined by an edge of each wall, wherein the cavity is configured for receiving an engagement feature of the same configuration as provided on the male mating side, and the indented region is positioned and configured to receive a portion of the engagement feature, to thereby link brick elements of the constructional toy together. a triangular prism shaped brick element comprising a plurality of walls which define: two square sides angled relative to one another, at least one of which is provided as a male mating side having a male engagement feature which extends from the brick element; and a cavity which provides a female mating side, the cavity defined by the plurality of walls, characterised in that at least one of the square wall sides having an indented region extending into its inner surface; the cavity having a square perimeter defined by an edge of each wall, wherein the cavity is configured for receiving an engagement feature of the same configuration as provided on the male mating side, and the indented region is positioned and configured to receive a portion of the engagement feature, to thereby link brick elements of the constructional toy together. two square sides angled relative to one another, at least one of which is provided as a male mating side having a male engagement feature which extends from the brick element; and a cavity which provides a female mating side, the cavity defined by the plurality of walls, characterised in that at least one of the square wall sides having an indented region extending into its inner surface; the cavity having a square perimeter defined by an edge of each wall, the cavity defined by the plurality of walls, characterised in that at least one of the square wall sides having an indented region extending into its inner surface; wherein the cavity is configured for receiving an engagement feature of the same configuration as provided on the male mating side, and the indented region is positioned and configured to receive a portion of the engagement feature, to thereby link brick elements of the constructional toy together.
Bearing arrangement for rotatably supporting a rotor shaft of a wind turbine, wherein the rotor shaft transmits a rotation of a hub provided with rotor blades to a generator, wherein the bearing arrangement comprises a hub-side rolling bearing and a generator-side rolling bearing, wherein the hub-side rolling bearing is configured in the form of a multi-row radial roller bearing and the generator-side rolling bearing is configured in the form of a double-row tapered roller bearing in an X-arrangement or an O-arrangement, characterized in that the generator-side rolling bearing and the hub-side rolling bearing have induction hardened raceways, wherein the rolling bearings (3, 4) have each been pushed onto an end of the rotor shaft with their inner ring and have been screwed to an associated radial protrusion of the rotor shaft by screws that pass through the respective inner ring in an axial direction of the rolling bearings (3, 4).
An electro-optical modulator, comprising - at least one optical waveguide (11, 12); - a plurality of segments (A - E), wherein each one of the segments (A - E) comprises at least one waveguide electrode (111a - 111e, 121a - 121e) for supplying a voltage to the optical waveguide (11, 12), and wherein - the segments (A - E) are arranged one behind the other along the optical waveguide, and - each one of the segments (A - E) forms an electrical resonant circuit, wherein the segments (A - E) are configured in such a way that the resonance frequency ( f R A − f R E) of the electrical resonant circuit of at least one of the segments (A - E) lies within the frequency range of an electrical signal supplied to the driver units (2a - 2e), characterized in that each one of the segments (A - E) comprises its own driver unit (2a - 2e) electrically connected to the waveguide electrode (111a - 111e, 121a - 121e) of the segment (A - E) and for supplying an amplified electric signal to the waveguide electrode (111a - 111e, 121a- 121e), and each one of the electrical resonant circuits formed by the segments (A - E) is formed as RLC resonant circuit, wherein a capacitive component of the RLC resonant circuits is formed by at least the capacity (C1, C2) of a capacitive section of the optical waveguide (11, 12), and wherein each one of the capacitive sections comprises a diode structure. - at least one optical waveguide (11, 12); - a plurality of segments (A - E), wherein each one of the segments (A - E) comprises at least one waveguide electrode (111a - 111e, 121a - 121e) for supplying a voltage to the optical waveguide (11, 12), and wherein - the segments (A - E) are arranged one behind the other along the optical waveguide, and - each one of the segments (A - E) forms an electrical resonant circuit, wherein the segments (A - E) are configured in such a way that the resonance frequency ( f R A − f R E) of the electrical resonant circuit of at least one of the segments (A - E) lies within the frequency range of an electrical signal supplied to the driver units (2a - 2e), characterized in that each one of the segments (A - E) comprises its own driver unit (2a - 2e) electrically connected to the waveguide electrode (111a - 111e, 121a - 121e) of the segment (A - E) and for supplying an amplified electric signal to the waveguide electrode (111a - 111e, 121a- 121e), and each one of the electrical resonant circuits formed by the segments (A - E) is formed as RLC resonant circuit, wherein a capacitive component of the RLC resonant circuits is formed by at least the capacity (C1, C2) of a capacitive section of the optical waveguide (11, 12), and wherein each one of the capacitive sections comprises a diode structure.