mhurhangee/ep-ind-claims huggingface dataset:
A nut, comprising: - a female thread for threading a bolt thereinto; - a head surrounding said female thread, for holding said female thread, for allowing rotating the bolt in relation to said female thread; and - a self-tapping thread, for threading said nut through an object, said self-tapping thread not providing linear pacing in relation to the object upon rotation therebetween upon completing the threading therebetween, wherein said self-tapping thread comprises said female thread for threading the bolt therethrough, thereby allowing connecting said nut to the object and then moving the bolt in relation to the object either by rotating the bolt in relation to said nut, or by rotating said nut in relation to the object, thereby allowing fixing the object to a building structure at an adjustable distance, and wherein said character of said self-tapping thread of not providing linear pacing in relation to the object upon rotation therebetween upon completing the threading therebetween, comprises an internal binding being thinner than a central binding, and wherein said self-tapping thread further comprises a space disposed between said internal binding and an adjacent surface of said head, thereby upon rotating said nut in relation to said object in a closing direction, a bending in a hole in said object bends an end of said internal binding, thereby removing said bending of said object from a gap between the central and internal bindings (44B, 44C) of said self-tapping thread. - a female thread for threading a bolt thereinto; - a head surrounding said female thread, for holding said female thread, for allowing rotating the bolt in relation to said female thread; and - a self-tapping thread, for threading said nut through an object, said self-tapping thread not providing linear pacing in relation to the object upon rotation therebetween upon completing the threading therebetween, wherein said self-tapping thread comprises said female thread for threading the bolt therethrough, thereby allowing connecting said nut to the object and then moving the bolt in relation to the object either by rotating the bolt in relation to said nut, or by rotating said nut in relation to the object, thereby allowing fixing the object to a building structure at an adjustable distance, and wherein said character of said self-tapping thread of not providing linear pacing in relation to the object upon rotation therebetween upon completing the threading therebetween, comprises an internal binding being thinner than a central binding, and wherein said self-tapping thread further comprises a space disposed between said internal binding and an adjacent surface of said head, thereby upon rotating said nut in relation to said object in a closing direction, a bending in a hole in said object bends an end of said internal binding, thereby removing said bending of said object from a gap between the central and internal bindings (44B, 44C) of said self-tapping thread.
A connection setting information managing system comprising a setting tool, a plurality of network devices (2,3,4,5,6) and an IP network, the setting tool configured to set connection setting information, wherein the connection setting information allows a network device of the plurality of network devices (2, 3, 4, 5, 6) connected to the IP network to perform a communication over the IP network, the system further comprising: a connection setting information storage unit configured to store the connection setting information and a tag name that is assigned to and is unique to the network device (2, 3, 4, 5, 6), wherein the setting tool is configured to inquire and receive the tag name from the network device (2, 3, 4, 5, 6) over the IP network, the setting tool is configured to set the connection setting information to the network device (2, 3, 4, 5, 6), based on the tag name that is unique to the network device, the IP network is configured to serve as a setting virtual network temporarily for setting the connection setting information to the network device (2, 3, 4, 5, 6), the setting virtual network is configured to perform a communication using multicast, and each network device of the plurality of network devices (2, 3, 4, 5, 6) and the setting tool is configured to share, in advance, a multicast address to be used for connection to the setting virtual network and each network device of the plurality of network devices (2,3,4,5,6) is configured to receive a packet that is directed to the multicast address and, wherein the packet is configured to inquire the tag name of the network device (2, 3, 4, 5, 6) or to set the connection setting information. a connection setting information storage unit configured to store the connection setting information and a tag name that is assigned to and is unique to the network device (2, 3, 4, 5, 6), wherein the setting tool is configured to inquire and receive the tag name from the network device (2, 3, 4, 5, 6) over the IP network, the setting tool is configured to set the connection setting information to the network device (2, 3, 4, 5, 6), based on the tag name that is unique to the network device, the IP network is configured to serve as a setting virtual network temporarily for setting the connection setting information to the network device (2, 3, 4, 5, 6), the setting virtual network is configured to perform a communication using multicast, and each network device of the plurality of network devices (2, 3, 4, 5, 6) and the setting tool is configured to share, in advance, a multicast address to be used for connection to the setting virtual network and each network device of the plurality of network devices (2,3,4,5,6) is configured to receive a packet that is directed to the multicast address and, wherein the packet is configured to inquire the tag name of the network device (2, 3, 4, 5, 6) or to set the connection setting information.
A field winding type rotating electric machine comprising: a stator armature winding wound on a stator core; a rotor field winding (44, 44-1, 44-2, 44-3) wound on a rotor core; a rectifying element connected to both ends of the rotor field winding; a capacitor (54, 54-1, 54-2) having one end connected to one end of the rectifying element and the other end connected between the two ends of the rotor field winding; and a control circuit configured to supply electric current, which includes a fundamental component for generating rotational torque and a harmonic component having a shorter period than the fundamental component and superimposed on the fundamental component, to the stator armature winding and thereby induce excitation current in the rotor field winding, wherein an inductance of the rotor field winding and a capacitance of the capacitor are in a resonant relationship with a frequency of the harmonic component. a stator armature winding wound on a stator core; a rotor field winding (44, 44-1, 44-2, 44-3) wound on a rotor core; a rectifying element connected to both ends of the rotor field winding; a capacitor (54, 54-1, 54-2) having one end connected to one end of the rectifying element and the other end connected between the two ends of the rotor field winding; and a control circuit configured to supply electric current, which includes a fundamental component for generating rotational torque and a harmonic component having a shorter period than the fundamental component and superimposed on the fundamental component, to the stator armature winding and thereby induce excitation current in the rotor field winding, wherein an inductance of the rotor field winding and a capacitance of the capacitor are in a resonant relationship with a frequency of the harmonic component.
A method for operating a wind turbine comprising a speed-variable drive system comprising an electrical machine and a pulse-width modulation-controlled converter, wherein the speed-variable drive system is connected to an electrical grid, characterized in that in the event of a transient grid fault a frequency of the pulse-width modulation is determined in response to a current in at least one of an electrical circuit connecting the electrical machine to the converter and an electrical circuit connecting the converter to the grid.
A method comprising: deploying a propellant system and at least one component (60, 62, 64,76, 48) to a subsea location; arming the propellant system by transmitting a command from a control system (24, 32) at the surface; and in response to one of receiving a signal or detection of a loss of communication with the control system (24, 32), exposing a firing head of the propellant system to a predetermined pressure to cause the firing head to move with respect to a prong configured to hold the firing head in place; impacting an igniter with movement of the firing head; and igniting a propellant in contact with the igniter to actuate the at least one component (24, 32). deploying a propellant system and at least one component (60, 62, 64,76, 48) to a subsea location; arming the propellant system by transmitting a command from a control system (24, 32) at the surface; and in response to one of receiving a signal or detection of a loss of communication with the control system (24, 32), exposing a firing head of the propellant system to a predetermined pressure to cause the firing head to move with respect to a prong configured to hold the firing head in place; impacting an igniter with movement of the firing head; and igniting a propellant in contact with the igniter to actuate the at least one component (24, 32).
An apparatus comprising: a processor; and a memory on which are stored machine-readable instructions that when executed by the processor, cause the processor to: identify first property values along an image of a pattern of features, the first property values being based on a first signal corresponding to an image of the pattern captured by an imaging sensor, the pattern being positioned at a spaced relation with respect to the imaging sensor; receive a second signal corresponding to a second image captured, at the same location as the first image, by the imaging sensor; identify, from the second signal, second property values along the second image; determine whether the second property values differ from the first property values; and based on a determination that the second property values differ from the first property values, determine that a beginning of a media is positioned to be imaged by the imaging sensor. a processor; and a memory on which are stored machine-readable instructions that when executed by the processor, cause the processor to: identify first property values along an image of a pattern of features, the first property values being based on a first signal corresponding to an image of the pattern captured by an imaging sensor, the pattern being positioned at a spaced relation with respect to the imaging sensor; receive a second signal corresponding to a second image captured, at the same location as the first image, by the imaging sensor; identify, from the second signal, second property values along the second image; determine whether the second property values differ from the first property values; and based on a determination that the second property values differ from the first property values, determine that a beginning of a media is positioned to be imaged by the imaging sensor. identify first property values along an image of a pattern of features, the first property values being based on a first signal corresponding to an image of the pattern captured by an imaging sensor, the pattern being positioned at a spaced relation with respect to the imaging sensor; receive a second signal corresponding to a second image captured, at the same location as the first image, by the imaging sensor; identify, from the second signal, second property values along the second image; determine whether the second property values differ from the first property values; and based on a determination that the second property values differ from the first property values, determine that a beginning of a media is positioned to be imaged by the imaging sensor.
Use of at least one pinch fitting comprising a pinch-fitting sleeve for controlling and/or stopping of a flow of particulate polysilicon having a particle size of 150 μm to 10 000 μm, measured by means of dynamic image analysis to ISO 13322-2, measurement range: 30 μm - 30 mm, analysis type: dry measurement of powders and granules, characterized in that the pinch-fitting sleeve comprises an elastomer selected from the group consisting of ethylene-propylene-diene rubber, fluorinated elastomer and a combination of ethylene-propylene-diene rubber and fluorinated elastomer.
A working vehicle comprising: a mower connected to an abdomen of a running machine body via lifting links (27, 28); a lifting interlocking link mechanism provided below the machine body so as to be able to move the mower up and down; and a link stopper connected to an adjustment dial and acting on the lifting interlocking link mechanism to change a cutting height of the mower, wherein the adjustment dial is arranged on a seat support panel that supports an operator seat, while the link stopper is arranged below the machine body, fenders (14L, 14R) covering rear wheels are provided on the left and right of the operator seat, and a lifting lever configured to raise and lower the mower is provided on one side of the left and right sides of the machine body, characterized in that the adjustment dial and the link stopper are connected by a wire, a parking lever is arranged on the seat support panel on the other side of the left and right sides of the machine body, and the adjustment dial is arranged between the parking lever and the fender outside the parking lever. a mower connected to an abdomen of a running machine body via lifting links (27, 28); a lifting interlocking link mechanism provided below the machine body so as to be able to move the mower up and down; and a link stopper connected to an adjustment dial and acting on the lifting interlocking link mechanism to change a cutting height of the mower, wherein the adjustment dial is arranged on a seat support panel that supports an operator seat, while the link stopper is arranged below the machine body, fenders (14L, 14R) covering rear wheels are provided on the left and right of the operator seat, and a lifting lever configured to raise and lower the mower is provided on one side of the left and right sides of the machine body, characterized in that the adjustment dial and the link stopper are connected by a wire, a parking lever is arranged on the seat support panel on the other side of the left and right sides of the machine body, and the adjustment dial is arranged between the parking lever and the fender outside the parking lever.
Device for forming an adhesive connection between an article and a support, wherein the article has a reservoir with an adhesive, which reservoir adjoins a contact surface by a wall having a frangible location, and wherein the article has a head with penetrating means associated therewith, wherein through actuation of the head the penetrating means produces a break-through in the frangible location of the wall of the reservoir, through which adhesive is conducted from the reservoir onto the contact surface and forms an adhesive layer for securing the article to the support, characterised in that the reservoir has two separate receptacles, that an aerobic adhesive substance as a first component of the adhesive in a first receptacle, that liquid or a hydrophilic substance, to which a metered amount of moisture is added, is stored as second component of the adhesive is stored in a second receptacle and that when the head is actuated the receptacles are broken open so that the components of the adhesive are mixed.
A pallet comprising: a base layer; a cargo layer comprising a pair of wooden spaced apart connector boards and a pair of wooden spaced apart end deck boards orthogonal to said pair of connector boards; and a plurality of plastic spaced apart support elements positioned between said base layer and said cargo layer, with each support element including an open recessed channel therein to receive a respective connector board from the cargo layer; wherein the support elements form a gap therebetween for receiving a lifting member; characterized in that each support element extends in length between said pair of spaced apart end deck boards and is configured as a one-piece skid, and that the connector boards are received in the recessed channels of the support elements so that a widest surface of the connector boards is exposed. a base layer; a cargo layer comprising a pair of wooden spaced apart connector boards and a pair of wooden spaced apart end deck boards orthogonal to said pair of connector boards; and a plurality of plastic spaced apart support elements positioned between said base layer and said cargo layer, with each support element including an open recessed channel therein to receive a respective connector board from the cargo layer; wherein the support elements form a gap therebetween for receiving a lifting member; characterized in that each support element extends in length between said pair of spaced apart end deck boards and is configured as a one-piece skid, and that the connector boards are received in the recessed channels of the support elements so that a widest surface of the connector boards is exposed.
Positioning arm for positioning of a scan head of a surface scanning measurement device relative to a surface, wherein the positioning arm comprises a base at a first end thereof for mounting the arm with the base to a static reference structure, wherein the positioning arm further comprises a first and a second arm member extending from the base, the second arm member extending parallel to the first arm member, wherein the positioning arm comprises a bridge member at a second end thereof, the bridge member connecting the first and the second arm members (10, 11) at said second end of the positioning arm, wherein each one of the first and the second arm member is respectively connected to each one of said base and said bridge member by means of a hingeable connection (17, 18, 19, 20), and wherein the positioning arm further comprises an actuator, wherein the actuator acts on structural members (29, 30) that are respectively connected to the first arm member and the second arm member for inducing a relative displacement between the first and the second arm member (10,11) in a longitudinal direction of said first and second arm member (10, 11) for swinging the second end of the positioning arm in a direction transverse to the lateral displacement, wherein the bridge member comprises a support for supporting the scan head.
Method for rotary blind embossing of a substrate in a work station, comprising an embossing roller and a counterpressure roller, wherein the method comprises the following steps: a) preparation of the substrate; b) blind embossing of the substrate by means of at least one die arranged on the embossing roller and at least one punch arranged on the counterpressure roller; and wherein the method comprises the following steps; - preparation of a positioning aid comprising at least one window region; - arrangement of the positioning aid on the embossing roller and/or the counterpressure roller; - arrangement of the at least one die and/or punch in the at least one window region of the positioning aid, characterised in that, during the arrangement of the at least one die and/or punch in the at least one window region of the positioning aid, the at least one die and/or punch are adjusted by the means of an adjustment aid in the at least one window region, and the adjustment aid is arranged in such a way that the at least one die and/or punch is moveable at least in one direction. a) preparation of the substrate; b) blind embossing of the substrate by means of at least one die arranged on the embossing roller and at least one punch arranged on the counterpressure roller; - preparation of a positioning aid comprising at least one window region; - arrangement of the positioning aid on the embossing roller and/or the counterpressure roller; - arrangement of the at least one die and/or punch in the at least one window region of the positioning aid,
A method of detecting ice on a surface, comprising the heating an element placed in contact with the surface, measuring a temperature-dependent quantity of the element, and detecting ice on the surface as a function of said measurement, - or: ▪ the heating of element is carried out in such a way as to ensure that the temperature is strictly above the melting temperature of the ice for a predetermined period of time with constant thermal power; and ▪ the measurement of the temperature-dependent variable is carried out while the element is being heated; - characterised in that the detection of the presence of ice comprises: ▪ determining a deviation between said measured quantity during the heating of the element and an exponential growth function representing change of the temperature in the absence of ice; the determination of the deviation comprising the calculation of a parameter of linearity of said measured quantity in a logarithmic time frame, the said deviation being equal to the said parameter or calculated as a function of said parameter; ▪ the detection (66, 68) of ice on the surface if the determined deviation is above a predetermined detection threshold. - or: ▪ the heating of element is carried out in such a way as to ensure that the temperature is strictly above the melting temperature of the ice for a predetermined period of time with constant thermal power; and ▪ the measurement of the temperature-dependent variable is carried out while the element is being heated; ▪ the heating of element is carried out in such a way as to ensure that the temperature is strictly above the melting temperature of the ice for a predetermined period of time with constant thermal power; and ▪ the measurement of the temperature-dependent variable is carried out while the element is being heated; - characterised in that the detection of the presence of ice comprises: ▪ determining a deviation between said measured quantity during the heating of the element and an exponential growth function representing change of the temperature in the absence of ice; the determination of the deviation comprising the calculation of a parameter of linearity of said measured quantity in a logarithmic time frame, the said deviation being equal to the said parameter or calculated as a function of said parameter; ▪ the detection (66, 68) of ice on the surface if the determined deviation is above a predetermined detection threshold. ▪ determining a deviation between said measured quantity during the heating of the element and an exponential growth function representing change of the temperature in the absence of ice; the determination of the deviation comprising the calculation of a parameter of linearity of said measured quantity in a logarithmic time frame, the said deviation being equal to the said parameter or calculated as a function of said parameter; ▪ the detection (66, 68) of ice on the surface if the determined deviation is above a predetermined detection threshold.