mhurhangee/ep-ind-claims huggingface dataset:
A smart self-driving system, comprising: a body; one or more proximity sensors (50, 55) coupled to the body and configured to detect an object moving in a given direction while the body is in a side follow position next to the object; and a central processing unit coupled to the body and configured to receive information from one or more of the proximity sensors (50, 55) to determine the given direction; a wheel control module in communication with the central processing unit; and one or more wheel assemblies, wherein the central processing unit is configured to transition the body between a side following position and a rear following position, where when in the side following position the body follows along a side of the object while moving in the given direction, and where when in the rear following position the body follows along behind the object while moving in the given direction, and characterized in that the central processing unit is configured to instruct the wheel control module and the one or more wheel assemblies to transition the body from the side follow position to the rear follow position, from the rear follow position to the side follow position, or both, based on information received from one or more of the proximity sensors (50, 55). a body; one or more proximity sensors (50, 55) coupled to the body and configured to detect an object moving in a given direction while the body is in a side follow position next to the object; and a central processing unit coupled to the body and configured to receive information from one or more of the proximity sensors (50, 55) to determine the given direction; a wheel control module in communication with the central processing unit; and one or more wheel assemblies, wherein the central processing unit is configured to transition the body between a side following position and a rear following position, where when in the side following position the body follows along a side of the object while moving in the given direction, and where when in the rear following position the body follows along behind the object while moving in the given direction, and characterized in that the central processing unit is configured to instruct the wheel control module and the one or more wheel assemblies to transition the body from the side follow position to the rear follow position, from the rear follow position to the side follow position, or both, based on information received from one or more of the proximity sensors (50, 55).
Wood-concrete composite construction with at least one concrete structural component and at least one wooden structural component, wherein the concrete structural component is in mesh with at least one composite superstructure of the wooden structural component, characterized in that the composite superstructure has at least two, preferably exactly two, layers that are arranged in a crosswise manner on top of each other and that are comprised of respectively at least two webs, bars, slats, boards, or the like which are arranged at a lateral distance from each other, and in that it is closed off in a planar manner with respect to a load-bearing substructure of the wooden structural component, which serves the purpose of receiving shearing and transverse tensile forces between the wooden structural component and the concrete as well as of redistributing the shearing forces inside the wooden structural component.
Wooden panel component comprising a frame and comprising at least two or more layers, arranged within the frame, of transverse struts, which are aligned obliquely in relation to mutually opposite frame members (6, 7) of the frame, characterized in that the wooden panel component has four layers of transverse struts, which are distributed in mutually offset planes parallel to a direction of longitudinal extent of the frame members (6, 7) within the frame and over the entire depth of the frame, wherein transverse struts of adjacent layers intersect, and in that the two mutually opposite frame members (6, 7), for each layer of transverse struts, have a respective grid of holding points in or on holding depressions made in the frame members (6, 7), on/in which holding depressions the transverse struts are fastened by way of their ends to the frame members (6, 7).
A seat moveable between a seat configuration and a bed configuration, the seat comprising a squab including upper and lower cushions (126, 124), the upper cushion being connected to the lower cushion, a conversion mechanism configured to move the squab, for converting the seat between the seat and bed configurations, and a backrest connected to the squab or linked to the conversion mechanism, for moving with the squab, the squab being laterally displaceable by the conversion mechanism between a first position in the seat configuration and a second position in the bed configuration, the backrest being configured to occupy a space at an end of the squab substantially in concert with lateral displacement of the squab into the second position, the space being made available by lateral displacement of the squab, and the upper cushion of the squab being movable relative to the lower cushion for covering the backrest in the bed configuration, wherein the upper cushion of the squab is tethered to a lower region to cause inversion of the upper cushion by each of lateral displacement of the squab from the seat configuration to the bed configuration and lateral displacement of the squab from the bed configuration to the seat configuration. a squab including upper and lower cushions (126, 124), the upper cushion being connected to the lower cushion, a conversion mechanism configured to move the squab, for converting the seat between the seat and bed configurations, and a backrest connected to the squab or linked to the conversion mechanism, for moving with the squab, the squab being laterally displaceable by the conversion mechanism between a first position in the seat configuration and a second position in the bed configuration, the backrest being configured to occupy a space at an end of the squab substantially in concert with lateral displacement of the squab into the second position, the space being made available by lateral displacement of the squab, and the upper cushion of the squab being movable relative to the lower cushion for covering the backrest in the bed configuration, wherein the upper cushion of the squab is tethered to a lower region to cause inversion of the upper cushion by each of lateral displacement of the squab from the seat configuration to the bed configuration and lateral displacement of the squab from the bed configuration to the seat configuration.
A door handle for a vehicle with a sensor arrangement for detecting the pressing of an operator body part against a sensor surface, characterised in that a piezo oscillator is coupled into an oscillator circuit and is made to vibrate and is connected with the sensor surface such that a touching or pressing of the body part against the sensor surface leads to a change in oscillating behaviour due to the dampening of and increase in the oscillating mass, wherein the piezo oscillator is mounted in the door handle such that the sensor surface is arranged at an operating point of the door handle, wherein the oscillator circuit is connected with an evaluating circuit such that this change in oscillating behaviour can be detected and an output signal indicating this can be generated.
Method of producing a hologram on a curved substrate pane, having the steps of: - providing a curved substrate pane with a substrate surface, the actual geometry of which is subject to a variance in tolerance compared to a predetermined target geometry; - providing an inflatable cushion with a cushion surface which is shapeable by the action of pressure and has been preshaped to the predetermined target geometry or with a predetermined variance therefrom; - applying a holography master in the form of a flexible thin layer to the shapeable cushion surface; - applying a hologram recording layer to the substrate surface; - pressing or laying the holography master onto the hologram recording layer by means of the cushion surface shaped to the actual geometry, which achieves full-area contact between the two with an essentially constant predetermined layer thickness of the hologram recording layer; and - exposing the hologram recording layer in this hologram recording arrangement with a coherent light to form a hologram defined by the holography master in the hologram recording layer. - providing a curved substrate pane with a substrate surface, the actual geometry of which is subject to a variance in tolerance compared to a predetermined target geometry; - providing an inflatable cushion with a cushion surface which is shapeable by the action of pressure and has been preshaped to the predetermined target geometry or with a predetermined variance therefrom; - applying a holography master in the form of a flexible thin layer to the shapeable cushion surface; - applying a hologram recording layer to the substrate surface; - pressing or laying the holography master onto the hologram recording layer by means of the cushion surface shaped to the actual geometry, which achieves full-area contact between the two with an essentially constant predetermined layer thickness of the hologram recording layer; and - exposing the hologram recording layer in this hologram recording arrangement with a coherent light to form a hologram defined by the holography master in the hologram recording layer.
A method for manufacturing and installing a motor of a traction elevator, the method comprising: determining a plurality of parameters of an electrical motor during a testing of the electrical motor, the plurality of parameters comprising at least one of a serial number, a nominal torque, a nominal current, a resistance, a reactance, a source voltage, a voltage, an acceleration current, an input frequency, a nominal input frequency, a nominal angular velocity, a torque graph, a traction sheave diameter, a traction sheave radius, a number of magnetic dipoles, a brake voltage, a brake current, a brake current decay time, a brake current half-life, an encoder type, a number of pulses of the encoder and a gear ratio of the electrical motor; storing the plurality of parameters of the electrical motor determined to a memory; installing the memory to the electrical motor; installing the electrical motor in the traction elevator, following the installing of the memory to the electrical motor; connecting a communication channel between a drive computer unit and the memory comprising the plurality of electrical motor parameters, following the installing of the electrical motor; powering on the elevator and the drive computer unit; determining a plurality of elevator parameters required in driving the elevator correctly by the drive computer unit, the plurality of elevator parameters being determined using the plurality of parameters of the electrical motor, in response to the powering on, and characterised in that the memory associated with the electrical motor is communicatively connected to the drive computer unit via an encoder of the electrical motor and the drive computer unit obtains the plurality of electrical motor parameters via the encoder. determining a plurality of parameters of an electrical motor during a testing of the electrical motor, the plurality of parameters comprising at least one of a serial number, a nominal torque, a nominal current, a resistance, a reactance, a source voltage, a voltage, an acceleration current, an input frequency, a nominal input frequency, a nominal angular velocity, a torque graph, a traction sheave diameter, a traction sheave radius, a number of magnetic dipoles, a brake voltage, a brake current, a brake current decay time, a brake current half-life, an encoder type, a number of pulses of the encoder and a gear ratio of the electrical motor; storing the plurality of parameters of the electrical motor determined to a memory; installing the memory to the electrical motor; installing the electrical motor in the traction elevator, following the installing of the memory to the electrical motor; connecting a communication channel between a drive computer unit and the memory comprising the plurality of electrical motor parameters, following the installing of the electrical motor; powering on the elevator and the drive computer unit; determining a plurality of elevator parameters required in driving the elevator correctly by the drive computer unit, the plurality of elevator parameters being determined using the plurality of parameters of the electrical motor, in response to the powering on, and
A negative electrode slurry comprising: a lithium titanium oxide; a dispersant comprising a repeating unit derived from a monomer containing a polar OH group and a repeating unit derived from a monomer containing a non-polar alkyl group in a molecular structure of the dispersant; a binder; and an organic solvent; wherein the negative electrode slurry satisfies Equation 1: A B ⋅ C ≥ 0.06 wherein, in Equation 1, A is an amount (wt%) of a repeating unit derived from a monomer containing the polar OH group in the dispersant, B is a weight-average molecular weight (Kg/mol) of the dispersant, and C is a weight (parts by weight) of the dispersant based on 100 parts by weight of the lithium titanium oxide. a lithium titanium oxide; a dispersant comprising a repeating unit derived from a monomer containing a polar OH group and a repeating unit derived from a monomer containing a non-polar alkyl group in a molecular structure of the dispersant; a binder; and an organic solvent; wherein the negative electrode slurry satisfies Equation 1: A B ⋅ C ≥ 0.06 wherein, in Equation 1, A is an amount (wt%) of a repeating unit derived from a monomer containing the polar OH group in the dispersant, B is a weight-average molecular weight (Kg/mol) of the dispersant, and C is a weight (parts by weight) of the dispersant based on 100 parts by weight of the lithium titanium oxide.
An apparatus for manufacturing an optical device by irradiating an object, comprising: a polarizing mask comprising a plurality of polarization lines (101, 102, 103, 104, 105) that comprise a plurality of polarization regions (1011,..., 5015) disposed adjacent to each other according to a first direction and the polarization lines being disposed adjacent to each other according to a second direction perpendicular to the first direction, at least one of the polarization lines (101, 102, 103, 104, 105) comprising polarization regions (1011,..., 5015), of which transmission axes are different from each other, and at least two of the polarization lines (101, 102, 103, 104, 105) having different average transmission axes from each other, characterized in that the average transmission axis refers to an average value of angles of the transmission axes of all the polarization regions (1011,..., 5015) included in the polarization line (101, 102, 103, 104, 105) wherein the polarizing mask comprises an increase or decrease region in which the average transmission axes of the polarization lines (101, 102, 103, 104, 105) increases or decreases according to the second direction and an increase or decrease rate R defined by the following Equation 7 is in a range from 1 to 10: R = Q / N wherein the "Q" represents an angle formed between an average transmission axis of polarization lines (101, 102, 103, 104, 105) whose average transmission axis starts to increase or decrease in the increase or decrease region according to the second direction and an average transmission axis of polarization lines (101, 102, 103, 104, 105) in which the increase or decrease in the average transmission axis is stopped, and the "N" represents the number of the polarization lines (101, 102, 103, 104, 105) comprised in the increase or decrease region, wherein the unit of Q is degree, the apparatus further comprises a holding unit installed so as to hold the object to be irradiated, wherein the polarizing mask and the holding unit are configured to shift a relative position of the object to be irradiated with respect to the polarizing mask according to the first direction and the shift occurs in a length direction of a polarizing line such that the same region of the object to be irradiated is irradiated several times with different kinds of linearly polarized light.
Method for reducing the thickness of a precoat-layer accumulated on the filtering surface of a filter disc from a solids-containing suspension in a basin of a disc filter, said disc filter having two or more filter discs arranged on a shaft and between them at least one drop chute provided with a scraper on both sides, which scraper will scrape the cake filtered from the suspension on the filtering surfaces of the filter discs into the drop chute, by means of said scraper the layer thickness of the precoat on the filtering surface is reduced by shortening the distance between the tips of the scrapers and the filtering surface characterized in that the precoat thickness reduction is performed for the two precoats on the filtering surface of the filter discs on both sides of the drop chute non-simultaneously.
Robotic device (1, 100) for inspecting a pipe, comprising at least one pair of propulsion elements (2, 3; 4, 5) each including a rotary drum (6, 7; 8, 9) an outer surface of which has an Archimedes screw thread, the propulsion elements of a pair extending in a longitudinal direction such that they are symmetrical with one another relative to a median sagittal plane (P S) of the device, the device further comprising a body (10, 110) associated with the at least one pair of propulsion elements (2,3; 4,5) and in which are inserted at least one sensor (C1, C2), at least one pair of electric motors (17-20, 500, 600) each capable of rotating one of the rotary drums (6,7; 8,9) and at least one pair of electric power sources (21a-21c, 22a-22c; 23a-23c, 24a-24c, 151, 152; 161, 162) each capable of powering one of the electric motors (17,20, 500, 600), the body being shaped such that a ventral portion and a dorsal portion of the device are symmetrical with one another relative to a median frontal plane (P F) of the device, thus allowing the device to be displaced indifferently on its front or on its back by means of the at least one pair of propulsion elements (2,3; 4,5).
Connection method for inexpensive control of an electronic motor by means of single cable technology with high protection class, where the plug connector technology known per se is combined with the terminal box technology known per se, and the single cable is ready-made with plug connectors without high protection class, and the plug connectors are inserted, with said terminal box of said electronic motor opened, into associated sockets, and said ready-made single cable is placed into a combined strain relief and earthing shell provided in said terminal box, and a terminal box base (3.1) is firmly closed with a terminal box cover, characterized in that said plug connectors are kept in position in their sockets inside said terminal box by the screw connection of said terminal box cover to said terminal box base (3.1), in that the connection resulting from said plug connectors and said sockets is based on printed circuit board technology, where at the end of said single cable (1a, 1b), at which individual conductors exit a sheath of said single cable (1a, 1b), the plug connectors are attached and arranged inside plastic boxes (2a, 2b) at a 90° angle to the longitudinal extent of said single cable (1a, 1b), and where at the other end of the interior of the terminal box a printed circuit board manufactured by printed circuit board technology is arranged with a first row of sockets (4a, 4b) for connection of a high-voltage supply (400 V to 800 V) and a second row of sockets (4c, 4d), for connection of a 24V low-voltage supply, and is closer to the combined strain relief and earthing shell, and in that said single cable is a hybrid cable in which the power supply, the electronics supply and the communication are combined in one cable.
A method for assisting a remote user to provide instructions to a location in an industrial site where a process control system is operated, the method being performed by a data presenting device when being involved in a communication session with a device of the remote user, the data presenting device being moveable from location to location comprising a camera and a projector, the method comprising: - retrieving or creating a three-dimensional model of the location, - associating a presentation item to a position in the three-dimensional model, where the presentation item is a remote user generated presentation item comprising instructions and visual indicators, - receiving camera control commands from the remote user, said camera control commands comprising field of view control commands, - controlling the camera using the camera control commands comprising controlling the field of view of the camera, - receiving projector control commands from the remote user, said projector control commands comprising a command to project the presentation item in a presentation area of the projector, and - controlling the projector using the projector control commands comprising controlling the projector to project the presentation item in the presentation area, wherein the controlling of the presentation in the presentation area is performed independently of the controlling of the field of view of the camera and comprises controlling the projector to project the presentation item onto a real world position corresponding to the position in the three-dimensional model. - retrieving or creating a three-dimensional model of the location, - associating a presentation item to a position in the three-dimensional model, where the presentation item is a remote user generated presentation item comprising instructions and visual indicators, - receiving camera control commands from the remote user, said camera control commands comprising field of view control commands, - controlling the camera using the camera control commands comprising controlling the field of view of the camera, - receiving projector control commands from the remote user, said projector control commands comprising a command to project the presentation item in a presentation area of the projector, and - controlling the projector using the projector control commands comprising controlling the projector to project the presentation item in the presentation area,