mhurhangee/ep-ind-claims huggingface dataset:
A cutting element made of hard metal for an agricultural soil cultivation tool for cutting into soil, having a top side and a bottom side as well as a front side, a back side located opposite the front side, and at least one side surface, wherein the top side and the bottom side are connected via front side, back side and the at least one side surface, and the front side has a cutting region, characterized in that the front side has a cutting region comprising several teeth, wherein at least one tooth is formed with a first flank and a second flank, wherein the first flank and the second flank are part of the cutting region, wherein a profile line of the first flank and a profile line of the second flank have different lengths.
A secondary battery having an electrode assembly constructed in a structure in which a plurality of electrodes are stacked, while separators are disposed respectively between the electrodes, and electrode taps of the electrodes are connected with each other, the electrode assembly being mounted in a battery case having an upper case member and a lower case member, wherein regions where the electrode taps are coupled to electrode leads (electrode tap - electrode lead coupling regions) are located at an upper-end contact region of the battery case between the upper case member and the lower case member, and the contact region is vertically bent such that the coupling region is parallel to the thickness direction y of the battery, whereby the electrode assembly is separated from an inner space of the battery case; characterized in that the contact region is a region where the upper ends of upper and lower case members (210, 220) constituting the battery case are in tight contact with each other.
A vector network analyzer (3, 4, 5, 6), comprising a first measuring port (31, 41, 51, 61), a first digital interface (311, 411, 511, 611), connected to the first measuring port, adapted to be connected to a digital input or output of a device under test, a second measuring port (32, 42, 52, 62), adapted to be connected to a radio frequency input or output of the device under test, a processor (36, 46, 56, 66), adapted to determine scattering S-parameters of the device under test, based upon measuring signals transmitted to the device under test and received from the device under test by at least the first measuring port and the second measuring port, characterized in that the vector network analyzer further comprises at least one additional non-RF measuring port including an optical interface (431, 631, 71, 85) or an Inphase, I, /quadrature phase, Q, interface adapted to be connected to an optical or an I/Q input or output of the device under test, respectively, the processor (36, 46, 56, 66) is adapted to determine scattering S-parameters of the device under test based upon measuring RF and non-RF signals transmitted to the device under test and received from the device under test, and the vector network analyzer (3, 4, 5, 6) is configured for a calibration of the measuring ports and optical interfaces and/or digital interfaces. a first measuring port (31, 41, 51, 61), a first digital interface (311, 411, 511, 611), connected to the first measuring port, adapted to be connected to a digital input or output of a device under test, a second measuring port (32, 42, 52, 62), adapted to be connected to a radio frequency input or output of the device under test, a processor (36, 46, 56, 66), adapted to determine scattering S-parameters of the device under test, based upon measuring signals transmitted to the device under test and received from the device under test by at least the first measuring port and the second measuring port, characterized in that the vector network analyzer further comprises at least one additional non-RF measuring port including an optical interface (431, 631, 71, 85) or an Inphase, I, /quadrature phase, Q, interface adapted to be connected to an optical or an I/Q input or output of the device under test, respectively, the processor (36, 46, 56, 66) is adapted to determine scattering S-parameters of the device under test based upon measuring RF and non-RF signals transmitted to the device under test and received from the device under test, and the vector network analyzer (3, 4, 5, 6) is configured for a calibration of the measuring ports and optical interfaces and/or digital interfaces.
A method of wireless communications by a network entity, comprising: determining at least one paging hyper-frame index for paging a user equipment, UE. based on an identification, ID, of the UE, the paging hyper-frame determined from a set of periodically occurring hyper-frames that each spans a number of radio frames; and requesting one or more of a plurality of base stations, BSs, within a tracking area to page the UE more frequently during a paging response window of the UE and less frequently outside the paging response window of the UE, wherein the paging response window is a time window of twice the length of a hyper-frame during which a paging hyper-frame of the at least one paging hyper-frame occurs for each of the plurality of base stations, wherein the the plurality of base stations initialise their respective hyper-frame indices at nearly the same time of base stations have aligned respective hyper-frame indices. determining at least one paging hyper-frame index for paging a user equipment, UE. based on an identification, ID, of the UE, the paging hyper-frame determined from a set of periodically occurring hyper-frames that each spans a number of radio frames; and requesting one or more of a plurality of base stations, BSs, within a tracking area to page the UE more frequently during a paging response window of the UE and less frequently outside the paging response window of the UE, wherein the paging response window is a time window of twice the length of a hyper-frame during which a paging hyper-frame of the at least one paging hyper-frame occurs for each of the plurality of base stations, wherein the the plurality of base stations initialise their respective hyper-frame indices at nearly the same time of base stations have aligned respective hyper-frame indices.
A masonry reinforcement structure comprising at least two assemblies of grouped metal filaments, at least one positioning element for positioning said at least two assemblies of grouped metal filaments in a predetermined position and a polymer coating for securing said at least two assemblies of grouped metal filaments in said predetermined position, said polymer coating being applied on said at least two assemblies and on said at least one positioning element making a bond between, on the one hand, said assemblies and said positioning element.
A cyber security module (40, 40A, 4-B, 40D) for providing security to an in-vehicle communication network having a bus (61, 71), at least one node (62, 63, 64, 65, 66, 72, 73, 74, 75, 76, 77, 78, 79) connected to the bus, and at least one communications device coupled to the in-vehicle communication network configured to interface the in-vehicle network with an external communication network, the cyber security module comprising: a communication port (42, 52) configured to receive a message from the communication device that the communication device generates based on a message that the communication device receives from the external communication network; at least one communication port coupled to the bus; an authentication module configured to authenticate whether or not the message originated from an authorized source; and a processor configured to operate to prevent content of the message from being operated on if the authentication module determines that the source of the message received by the communication device is not from an authorized source, characterized in that, the module is selectively operable in a plurality of modes and the message from the communication device comprises an instruction instructing the module to operate in a particular mode selected from the plurality of modes. a communication port (42, 52) configured to receive a message from the communication device that the communication device generates based on a message that the communication device receives from the external communication network; at least one communication port coupled to the bus; an authentication module configured to authenticate whether or not the message originated from an authorized source; and a processor configured to operate to prevent content of the message from being operated on if the authentication module determines that the source of the message received by the communication device is not from an authorized source, characterized in that, the module is selectively operable in a plurality of modes and the message from the communication device comprises an instruction instructing the module to operate in a particular mode selected from the plurality of modes.
Power control unit (40; 60) for dimming a voltage of an external power supply and for controlling electrical power provided to a load, in particular an LED unit comprising one or more LEDs, said driver device comprising: - a dimmer having an input terminal for receiving an input voltage from an external power supply and having an output terminal for providing an output voltage to power the load, wherein the dimmer comprises a switching device for transforming the input voltage to the output voltage, - a control unit for controlling the switching device, characterized in that the power control unit further comprises: signal means (46; 62) connected to the output terminal for applying a voltage or current signal to the output terminal, wherein the control unit is connected to the signal means (46; 62) and adapted to control the signal means (46; 62), wherein the signal means (46; 62): comprise a current control unit (46; 62) for providing the signal by controlling a current drawn from the output terminal or provided to the output terminal, and/or are adapted for controlling the course of the output voltage and for setting the slope of the output voltage to a predefined level. - a dimmer having an input terminal for receiving an input voltage from an external power supply and having an output terminal for providing an output voltage to power the load, wherein the dimmer comprises a switching device for transforming the input voltage to the output voltage, - a control unit for controlling the switching device, characterized in that the power control unit further comprises: signal means (46; 62) connected to the output terminal for applying a voltage or current signal to the output terminal, wherein the control unit is connected to the signal means (46; 62) and adapted to control the signal means (46; 62), wherein the signal means (46; 62): comprise a current control unit (46; 62) for providing the signal by controlling a current drawn from the output terminal or provided to the output terminal, and/or are adapted for controlling the course of the output voltage and for setting the slope of the output voltage to a predefined level. signal means (46; 62) connected to the output terminal for applying a voltage or current signal to the output terminal, wherein the control unit is connected to the signal means (46; 62) and adapted to control the signal means (46; 62), wherein the signal means (46; 62): comprise a current control unit (46; 62) for providing the signal by controlling a current drawn from the output terminal or provided to the output terminal, and/or are adapted for controlling the course of the output voltage and for setting the slope of the output voltage to a predefined level. comprise a current control unit (46; 62) for providing the signal by controlling a current drawn from the output terminal or provided to the output terminal, and/or are adapted for controlling the course of the output voltage and for setting the slope of the output voltage to a predefined level.
A process for manufacturing a gas-filled multiple glazing unit comprising at least two glass sheets (1, 2, 3), the process comprising: - a preassembly step in which the glass sheets (1, 2, 3) are positioned facing one another, at least one of the glass sheets (1, 2, 3) being equipped with a spacer (4, 5) and each glass sheet (1, 2, 3) being positioned inclined at an angle (α, β) strictly greater than 0° and less than or equal to 10° to the adjacent glass sheet, so as to form at least one cavity (8, 9), each cavity (8, 9) being located between two adjacent glass sheets and being completely closed on one of its sides; - a step of partially blocking at least one of the sides (17, 18) of each cavity; - a step of filling each cavity (8, 9) by injecting gas via an injection side of the cavity (8, 9); and - a step of pressing the glass sheets (1, 2, 3) against one another in order to seal the multiple glazing unit, in which at least one of the partially blocked sides (17, 18) is different from the injection side. - a preassembly step in which the glass sheets (1, 2, 3) are positioned facing one another, at least one of the glass sheets (1, 2, 3) being equipped with a spacer (4, 5) and each glass sheet (1, 2, 3) being positioned inclined at an angle (α, β) strictly greater than 0° and less than or equal to 10° to the adjacent glass sheet, so as to form at least one cavity (8, 9), each cavity (8, 9) being located between two adjacent glass sheets and being completely closed on one of its sides; - a step of partially blocking at least one of the sides (17, 18) of each cavity; - a step of filling each cavity (8, 9) by injecting gas via an injection side of the cavity (8, 9); and - a step of pressing the glass sheets (1, 2, 3) against one another in order to seal the multiple glazing unit,
A method for producing a coated metal sheet, comprising: forming a coating film on a surface of a metal sheet by applying and curing a silicone resin-containing coating material; and subjecting the coating film to a flame treatment, wherein the silicone resin contains silanol groups in an amount of 5 to 50mol% relative to the total number of moles of Si atoms, wherein an amount of the silicone resin relative to a solid content of the silicone resin-containing coating material is 1.5weight% or more. forming a coating film on a surface of a metal sheet by applying and curing a silicone resin-containing coating material; and subjecting the coating film to a flame treatment, wherein the silicone resin contains silanol groups in an amount of 5 to 50mol% relative to the total number of moles of Si atoms, wherein an amount of the silicone resin relative to a solid content of the silicone resin-containing coating material is 1.5weight% or more.
A wireless identification tag for embedding into an electrically conductive surface of a rotatable work tool, the tag comprising at least a first and a second inductive planar loop having corresponding first and second terminals (230, 240, 250), wherein the first inductive planar loop and the second inductive planar loop are arranged in relation to a common plane and wherein the first inductive planar loop and the second inductive planar loop are arranged to cover different areas of the common plane, characterized in that each area on the common plane is associated with a respective polarity of the magnetic flux normal to said plane and where first loop is directed in an opposite direction compared to the second loop.
A wheel loader front unit comprising a frame for a wheel loader, the frame being pivotably connectable to a rear unit of the wheel loader for transferring loads between the frame and the rear unit, wherein the frame comprises a lift arm pivotably connected to the frame at a first pivot connection at a lift arm mounting point presented by the frame for lifting an implement of the wheel loader, characterized in that the wheel loader front unit comprises two hub supporting elements, each hub supporting element being arranged on opposite sides outside of the frame for supporting a respective hub unit, the lift arm is arranged to be pivoted around the first pivot connection by means of an actuator in the form of a main hydraulic cylinder, wherein the wheel loader front unit comprises two slave hydraulic cylinders each extending between the lift arm and a respective of the hub supporting elements, wherein each of the slave hydraulic cylinders is pivotally connected to the hub supporting element at a respective first mounting point and to the lift arm at a respective second mounting point, and wherein the wheel loader front unit further comprises a tilting hydraulic cylinder arranged to actuate a tilting movement of the implement in relation to the lift arm, the slave hydraulic cylinders being hydraulically connected to the tilting hydraulic cylinder for controlling the tilting movement of the implement when the lift arm is pivoted by means of the main hydraulic cylinder
A device for mounting a flange connection of a pipe, including a frame, (i) including two guide rods or rails, as guides, arranged in parallel, which are held at a distance by at least two spacers (5, 13), at least one of which is slidably guided on the guides and can be fixed in any sliding position; (ii) wherein the frame can be firmly clamped and adjusted with respect to a first flange end (1,1a; 2, 2a); characterized in that (iii) one of the spacers comprises an adjustment element adjustable to the second flange end (2, 2a) for displacing this flange end perpendicularly to its axis until it is axially aligned with the first flange end (1, 1a). (i) including two guide rods or rails, as guides, arranged in parallel, which are held at a distance by at least two spacers (5, 13), at least one of which is slidably guided on the guides and can be fixed in any sliding position; (ii) wherein the frame can be firmly clamped and adjusted with respect to a first flange end (1,1a; 2, 2a); characterized in that (iii) one of the spacers comprises an adjustment element adjustable to the second flange end (2, 2a) for displacing this flange end perpendicularly to its axis until it is axially aligned with the first flange end (1, 1a).
An outboard motor including an air intake structure, an engine, and a throttle body, the air intake structure comprising: an air intake port formed in an engine cover covering upper portion of the outboard motor for taking in and providing air for delivery to the throttle body in order for the air to be drawn into the throttle body; a first air intake port provided on a front side of the engine cover and configured to open forward in an advancing direction of the outboard motor; a lid member configured to open and close the first air intake port; a second air intake port provided on a rear side of the engine cover and configured to open rearward in the advancing direction of the outboard motor; an open/close member configured to change an open/close state of the second air intake port; and a separator that performs gas/liquid separation and is provided in a space which communicates the first air intake port and the second air intake port with the throttle body, wherein the space is provided so as to be isolated from an engine room, the separator includes a flat-plate portion configured to cover an upper portion of an air inlet of the throttle body and a skirt portion formed by extending a front end portion of the flat-plate portion downward, and the second air intake port is formed in the rear side of the engine cover on an upper side of the flat-plate portion of the separator and on a rear side of the front end portion of the flat-plate portion such that an air taken in through the second air intake port enters an upper space of the separator. an air intake port formed in an engine cover covering upper portion of the outboard motor for taking in and providing air for delivery to the throttle body in order for the air to be drawn into the throttle body; a first air intake port provided on a front side of the engine cover and configured to open forward in an advancing direction of the outboard motor; a lid member configured to open and close the first air intake port; a second air intake port provided on a rear side of the engine cover and configured to open rearward in the advancing direction of the outboard motor; an open/close member configured to change an open/close state of the second air intake port; and a separator that performs gas/liquid separation and is provided in a space which communicates the first air intake port and the second air intake port with the throttle body, wherein the space is provided so as to be isolated from an engine room, the separator includes a flat-plate portion configured to cover an upper portion of an air inlet of the throttle body and a skirt portion formed by extending a front end portion of the flat-plate portion downward, and the second air intake port is formed in the rear side of the engine cover on an upper side of the flat-plate portion of the separator and on a rear side of the front end portion of the flat-plate portion such that an air taken in through the second air intake port enters an upper space of the separator.
A device for generating and detecting coherent electromagnetic radiation in the THz frequency range, comprising a source for generating an electromagnetic pump radiation at a first frequency, an optically parametric oscillator for generating electromagnetic radiation in the THz frequency range, and a coherent phase-sensitive detector (3, 21) for detecting intensity and phase of the electromagnetic radiation generated by the optically parametric oscillator, wherein the source for generating the electromagnetic pump radiation, the optically parametric oscillator and the coherent phase-sensitive detector (3, 21) are so adapted that in operation of the device at least a part of the electromagnetic pump radiation which passes through the optically parametric oscillator is passed into the coherent phase-sensitive detector (3, 21), wherein in the optically parametric oscillator electromagnetic radiation at a second frequency different from the frequency of the pump radiation and from the THz frequency is generated, characterised in that the optically parametric oscillator and the coherent phase-sensitive detector (3, 21) are so adapted that in operation of the device the electromagnetic radiation at the second frequency is passed spatially overlapping with the pump radiation into the coherent phase-sensitive detector (3, 21).
A method of manufacturing a corrosion-resistant member which has a film of a composite titanium oxide for decreasing corrosion compared to a TiO 2 film deposited on a surface of a material for plant construction, wherein the film of a composite titanium oxide is represented by the molecular formula MTiO 3 in which M is a transition element, and wherein titanium oxide is preliminarily deposited on the surface of the material for plant construction, and the titanium oxide is subsequently or simultaneously subjected to high temperature treatment under an existence of an ion of the transition element, wherein the high temperature treatment is conducted in an aqueous solution of a temperature of not less than 80°C and not more than 500°C, has a pH value of not less than 8 and not more than 12, has a concentration of the ion of the transition element in an amount of not less than 1 ppb and not more than 10%, and contains less than 10 ppb of dissolved oxygen.
Eyeglasses comprising two lens units that are equipped with a retaining device for keeping said eyeglasses on a wearer's head, as well as a nose bridge that connects said units while having a central portion intended to be positioned about the wearer's nose, at least one of said units being equipped with a duct inside which a lateral portion of the nose bridge is mounted such that it slides by means of a device for adjusting the positioning of said lens unit relative to said nose bridge, the adjusting device comprising a member that is rotatably mounted in the duct, said eyeglasses being characterized in that said member and the lateral portion of the nose bridge comprise coupling means (9, 10) that are designed to convert the rotation of said member into a relative translational movement between said lateral portion and said duct.