mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a connecting element, in particular a cartridge-fired pin, for connecting at least two components, in particular sheet metal component, in which method a pointed region and a shank region of the connecting element are produced with different properties and the connecting element is produced in one piece, characterised in that the entire connecting element is provided with an adhesive coating, whereupon only the pointed region is freed of the adhesive coating in a first immersion bath and the pointed region is then provided with an antifriction coating in a second immersion bath.
A dishwasher comprising: a housing case; a washing tub disposed in the housing case; and a dish basket disposed in the washing tub for receiving dishes, wherein the dish basket includes a plurality of setting sections (27, 28a, 28b, 29) that are divided according to kinds of the dishes, at least one of the setting sections includes a support portion (30a, 32) arranged to support small plates from underside, and a ring-shaped rib forming a guide-shaped portion that imitates an outline of an opening of a cylindrical body of glass to be placed, and a support plane that includes the support portion (30a, 32) on one plane, and a guide-shaped plane that includes the guide-shaped portion on another plane are disposed at different positions, wherein both these planes are formed into approximately horizontal, the dish basket is configured such that the guide-shaped plane is disposed below the support plane in a vertical direction, wherein the support plane and the guide-shaped plane are separated from each other and are arranged in the same setting section one above the other, wherein the at least one setting section is arranged to accommodate any of small plates and glasses. a housing case; a washing tub disposed in the housing case; and a dish basket disposed in the washing tub for receiving dishes, wherein the dish basket includes a plurality of setting sections (27, 28a, 28b, 29) that are divided according to kinds of the dishes, at least one of the setting sections includes a support portion (30a, 32) arranged to support small plates from underside, and a ring-shaped rib forming a guide-shaped portion that imitates an outline of an opening of a cylindrical body of glass to be placed, and a support plane that includes the support portion (30a, 32) on one plane, and a guide-shaped plane that includes the guide-shaped portion on another plane are disposed at different positions, wherein both these planes are formed into approximately horizontal, the dish basket is configured such that the guide-shaped plane is disposed below the support plane in a vertical direction, wherein the support plane and the guide-shaped plane are separated from each other and are arranged in the same setting section one above the other, wherein the at least one setting section is arranged to accommodate any of small plates and glasses.
A method of transmitting a media independence handover, MIH, request message by a user equipment including a source media independent handover function, MIHF, entity, the method comprising: broadcasting the MIH request message through a data plane to at least one unknown destination MIHF entity (S405, S406), wherein the MIH request message includes a predefined MIHF identifier ID configured as a predefined zero-length in a destination ID area; setting an interval by a timer (S603a) after broadcasting the MIH request message (S602a) for receiving at least one MIH response message in response to the broadcasted MIH request message from the at least one unknown destination MIHF entity, wherein the source MIHF entity broadcasts the MIH request message using a different transport type if the at least one MIH response message is not received during the interval set by the timer (S602d). broadcasting the MIH request message through a data plane to at least one unknown destination MIHF entity (S405, S406), wherein the MIH request message includes a predefined MIHF identifier ID configured as a predefined zero-length in a destination ID area; setting an interval by a timer (S603a) after broadcasting the MIH request message (S602a) for receiving at least one MIH response message in response to the broadcasted MIH request message from the at least one unknown destination MIHF entity, wherein the source MIHF entity broadcasts the MIH request message using a different transport type if the at least one MIH response message is not received during the interval set by the timer (S602d).
A method (400, 500) of generating a monochrome image from image data obtained from an image capturing device having a color filter array over a sensor comprising a plurality of filter positions, the method comprising: receiving (410, 510) image data from the image capturing device, the image data corresponding to pixels; de-mosaicing (420, 540) the image data into three sets of RGB data representing red, green and blue, respectively, for each of the plurality of filter positions; performing a median operation for each pixel of each of the three sets of RGB data to reduce spatial noise for the RGB data, resulting in three sets of R'G'B' data; calculating (430, 560) a local gradient for each pixel of each of the three sets of R'G'B' data, by subtracting the maximum and minimum value in the area of median values; calculating a weight (440, 570) for each pixel of each of the three sets of R'G'B' data based on the corresponding local gradient; and calculating (450, 580) a pixel value for each pixel position, in the monochrome image, of the plurality of filter positions of for the sensor using the weight of the corresponding pixel of the three sets of the R'G'B' data. receiving (410, 510) image data from the image capturing device, the image data corresponding to pixels; de-mosaicing (420, 540) the image data into three sets of RGB data representing red, green and blue, respectively, for each of the plurality of filter positions; performing a median operation for each pixel of each of the three sets of RGB data to reduce spatial noise for the RGB data, resulting in three sets of R'G'B' data; calculating (430, 560) a local gradient for each pixel of each of the three sets of R'G'B' data, by subtracting the maximum and minimum value in the area of median values; calculating a weight (440, 570) for each pixel of each of the three sets of R'G'B' data based on the corresponding local gradient; and calculating (450, 580) a pixel value for each pixel position, in the monochrome image, of the plurality of filter positions of for the sensor using the weight of the corresponding pixel of the three sets of the R'G'B' data.
A fieldbus device for communicating with an automation device via a field bus, wherein the fieldbus device can be connected to another fieldbus device via a communication network, wherein the other fieldbus device is designed to emulate the automation device on communication technological level, wherein the communication technological emulation entails replicating a communication technological behaviour of the automation device, with: a network interface for communicating with the other fieldbus device via the communication network, wherein the network interface is designed to receive a data frame from the further fieldbus device via the communication network and to decapsulate a fieldbus signal from the data frame, wherein the fieldbus signal is intended for the automation device; and a fieldbus interface for communicating with the automation device via the fieldbus, wherein the fieldbus interface is designed to transmit the fieldbus signal to the automation device via the fieldbus; wherein the data frame comprises a plurality of time slots, wherein a time slot from the plurality of time slots is assigned to the automation device, wherein the fieldbus signal is encapsulated into the time slot, and wherein the network interface is designed to decapsulate the fieldbus signal from the time slot. a network interface for communicating with the other fieldbus device via the communication network, wherein the network interface is designed to receive a data frame from the further fieldbus device via the communication network and to decapsulate a fieldbus signal from the data frame, wherein the fieldbus signal is intended for the automation device; and a fieldbus interface for communicating with the automation device via the fieldbus, wherein the fieldbus interface is designed to transmit the fieldbus signal to the automation device via the fieldbus; wherein the data frame comprises a plurality of time slots, wherein a time slot from the plurality of time slots is assigned to the automation device, wherein the fieldbus signal is encapsulated into the time slot, and wherein the network interface is designed to decapsulate the fieldbus signal from the time slot.
A filling device for an operating fluid tank, comprising a tubular outer part and an inner part which is received in the outer part and which is designed to receive an operating fluid nozzle, wherein the inner part is formed in one piece and comprises a first end wall having a first opening and a second end wall having a second opening, the end walls (8, 9) being connected to one another via a shell and the shell being provided over the entire length between the end walls (8, 9) with a shell opening, whose width corresponds to the corresponding maximum inner width of the shell, wherein a second shell opening is provided in a portion adjoining the first end wall, such that the shell is reduced in this portion to two diagonally opposite webs extending in parallel.
Roller for an agricultural conveyor device for harvested crop, comprising an elongated roller body, the longitudinal midaxis of which corresponds during operation to an axis of rotation of the roller, and comprising a working tool releasably fixed relative to the roller body for acting on the harvested crop, wherein the working tools are arranged on at least two successive partial shells that cover the roller body in the circumferential direction and are releasably fixed to the roller body via at least one fastening means, characterized in that the partial shells are arranged centrally, as seen in a direction transverse to the longitudinal midaxis, between outer fixed tools that are arranged firmly on the roller body.
A method for controlling an idling fuel supply amount, wherein an integration correction term is calculated based on a deviation of an actual rotation speed of an internal combustion engine with respect to a target rotation speed of said internal combustion engine when said internal combustion engine is idling, and wherein said integration correction term is used to correct a fuel supply amount, thus controlling the idling rotation speed of said internal combustion engine, the method being characterized in that: said integration correction term is prevented from increasing in value by utilizing a guard process using an upper limit guard value and a lower limit guard value; and conducting prospective correction corresponding to friction which exists at an early initiation stage of said internal combustion engine on said fuel supply amount at an early stage of and/or immediately after initiation of said internal combustion engine.
Current collector for a rail vehicle, - having an electrically conducting contact installation which is configured to transmit energy between a catenary wire, which is disposed above a permanent way of the rail vehicle, and components of the rail vehicle; - having a lifting mechanism (KG, OA, UA) which is able to be disposed on the roof on the rail vehicle and supports the contact installation in such a manner that the contact installation for transmitting energy is pressed against the catenary wire from below; - in which the contact installation has a length which corresponds to a country-specifically predefined length of a contact strip of a contact strip-based current collector; - in which the contact installation is designed as a rotatably mounted roller, wherein the roller during the travel of the rail vehicle, for establishing electrical contact, rolls along the catenary wire from below; - in which the electrically conducting roller is mounted so as to be rotatable about a stationary axle, characterized in that - in which the rotatably mounted, electrically conducting roller is on air bearings; - in which the stationary axle is bored so as to be axially hollow, and in the radial direction in an encircling manner has bores or nozzles, respectively, for the air bearings; and - in which the bores or nozzles, respectively, are disposed in such a manner that air blown into the hollow axle (HOLW) flows out only in the region of the roller end faces. - having an electrically conducting contact installation which is configured to transmit energy between a catenary wire, which is disposed above a permanent way of the rail vehicle, and components of the rail vehicle; - having a lifting mechanism (KG, OA, UA) which is able to be disposed on the roof on the rail vehicle and supports the contact installation in such a manner that the contact installation for transmitting energy is pressed against the catenary wire from below; - in which the contact installation has a length which corresponds to a country-specifically predefined length of a contact strip of a contact strip-based current collector; - in which the contact installation is designed as a rotatably mounted roller, wherein the roller during the travel of the rail vehicle, for establishing electrical contact, rolls along the catenary wire from below; - in which the electrically conducting roller is mounted so as to be rotatable about a stationary axle, - in which the rotatably mounted, electrically conducting roller is on air bearings; - in which the stationary axle is bored so as to be axially hollow, and in the radial direction in an encircling manner has bores or nozzles, respectively, for the air bearings; and - in which the bores or nozzles, respectively, are disposed in such a manner that air blown into the hollow axle (HOLW) flows out only in the region of the roller end faces.
A method for managing data storage and access on a computing device, the computing device associated with a storage system accessible via a first communication interface and a second communication interface, the method comprising: a) providing a unified file system interface for facilitating interaction with the computing device, the unified file system interface operable in a first mode and a second mode, the first mode configured to facilitate interaction with content of the storage system via the first communication interface, and the second mode configured to facilitate interaction with content of the storage system via the second communication interface; b) monitoring which of the first communication interface and the second interface is currently in use; and c) operating the unified file system interface in the first mode when the first communication interface is in use and operating the unified file system interface in the second mode when the second communication interface is in use; wherein the unified file system interface is configured to provide access to content of the storage system via alias file paths which are independent of whether the unified file system interface is operating in the first mode or the second mode. a) providing a unified file system interface for facilitating interaction with the computing device, the unified file system interface operable in a first mode and a second mode, the first mode configured to facilitate interaction with content of the storage system via the first communication interface, and the second mode configured to facilitate interaction with content of the storage system via the second communication interface; b) monitoring which of the first communication interface and the second interface is currently in use; and c) operating the unified file system interface in the first mode when the first communication interface is in use and operating the unified file system interface in the second mode when the second communication interface is in use;
A flat filter element for filtering a fluid, having a filter body made up of a folded filter material, wherein - the filter element has along its circumferential edge a side edge running in circumferential direction, - the side edge has at least one strip portion, running along the side edge, with a side strip separate from the filter body and arranged on the filter body, characterized in that the side edge for sealing the filter body has at least one adhesive portion running along the side edge, which adhesive portion is formed as a pocket gluing between at least two folds, adjacent along the side edge, in the region of the side edge. - the filter element has along its circumferential edge a side edge running in circumferential direction, - the side edge has at least one strip portion, running along the side edge, with a side strip separate from the filter body and arranged on the filter body,
A process for providing impregnated substrates based on cellulose and/or starch with water-repellent and simultaneously antifungal, antibacterial, insect-repellent and/or antialgal properties, the substrate to be treated being brought into contact with an agent, which contains water and, as active substance, at least one linear, cyclic, branched or crosslinked co-oligomer or mixtures of co-oligomers from the series consisting of the alkyl-/aminoalkyl-/alkoxy- or hydroxy-siloxanes, such co-oligomers substantially satisfying the general formula I R[-O 2/2 Si(R 1) 2] w [-O (3-h)/2 Si(R 1) h] x [-O (3-i-j)/2 Si(R a {·HX} g)(CH 3) i j] y [-O (4-k)/2 Si k] z,, in which groups R are identical or different and R is substantially H, optionally methyl, ethyl or isopropyl or n-propyl and optionally a silyl radical having the silyl units according to formula I, groups R 1 are identical or different and R 1 is a linear, branched or cyclic, optionally substituted alkyl group having 1 to 18 carbon atoms, R a is an aminoalkyl group of the general formula (Ia) H 2 N(CH 2) d [ e (CH 2) f] β -, in which 0 ≤ d ≤ 6, 0 ≤ f ≤ 6, where e equals 0, if d equals 0, then β equals 1, where e equals 1, if d > 0, then β equals 1 or 2, groups X are identical or different and X is an organic or inorganic acid radical from the series consisting of chloride, formate, acetate and phosphate, where g equals 0 or 1 or 2 or 3, h, i and j, independently of one another, are 0 or 1 and k is 0, 1, 2 or 3 and x, y, z and w are identical or different and x is a number from 0 to 50, y is a number from 1 to 50, z is a number from 0.001 to 10 and w is a number from 0 to 30, with (w+x) ≥ 1, said agent being allowed to act and drying then being effected, wherein the substrate is impregnated superficially, more deeply or completely, and wherein the impregnation is carried out as a vacuum pressure impregnation. in which groups R are identical or different and R is substantially H, optionally methyl, ethyl or isopropyl or n-propyl and optionally a silyl radical having the silyl units according to formula I, groups R 1 are identical or different and R 1 is a linear, branched or cyclic, optionally substituted alkyl group having 1 to 18 carbon atoms, R a is an aminoalkyl group of the general formula (Ia) H 2 N(CH 2) d [ e (CH 2) f] β -, in which 0 ≤ d ≤ 6, 0 ≤ f ≤ 6, where e equals 0, if d equals 0, then β equals 1, where e equals 1, if d > 0, then β equals 1 or 2, groups X are identical or different and X is an organic or inorganic acid radical from the series consisting of chloride, formate, acetate and phosphate, where g equals 0 or 1 or 2 or 3, h, i and j, independently of one another, are 0 or 1 and k is 0, 1, 2 or 3 and x, y, z and w are identical or different and x is a number from 0 to 50, y is a number from 1 to 50, z is a number from 0.001 to 10 and w is a number from 0 to 30, with (w+x) ≥ 1,
Mechanical sequential gearbox, comprising a predetermined number of modules each of which comprises a pair of toothed wheels (2,3) aligned along the axis (x) of a first shaft and adapted to engage corresponding toothed wheels (120, 130) carried by a second shaft, wherein each of the toothed wheels (2, 3) of the first shaft is idly mounted on the latter and is adapted to be mechanically connected with it by means of a clutch which, in turn, is carried by a fork adapted to slide parallel to the first shaft to move the clutch towards one or the other of the toothed wheels (2, 3) between which the same coupling is arranged, and in which each fork is actuated by a control member (7, 101) to which the same fork is mechanically constrained, wherein the gearbox comprises disconnecting means adapted to disengage each fork by said control member (7, 101), characterized in that it comprises repositioning means of each fork adapted to dispose the same in an intermediate position between the corresponding toothed wheels (2, 3) of the first shaft when the fork is disengaged from the control member (7, 101), said intermediate position being a position in which the clutch carried by the fork is disengaged from said toothed wheels (2, 3) of the first shaft.
A method for estimating surface roughness of a ground for an off-road vehicle to control an implement, the method comprising: detecting motion data of an off-road vehicle traversing a field or work site during a sampling interval, the motion data comprising ground speed of the off-road vehicle; and detecting roll data of the off-road vehicle for the sampling interval to obtain a roll acceleration; characterized by detecting pitch data of the off-road vehicle for the sampling interval to obtain a pitch acceleration; determining a surface roughness index based on the detected motion data, pitch data and roll data for the sampling interval; displaying the surface roughness index to a user or operator of the vehicle, estimating zones with corresponding surface roughness index ranges within a field or work site based on the determined surface roughness index as a vehicle traverses or traversed the field or work site over multiple sampling intervals, determining a position of a vehicle, or its implement, in the field or in the work site with respect to the estimated zones of different corresponding surface roughness index ranges; and estimating a vehicle ground speed setting for the vehicle consistent with alignment and/or overlap of the determined position of the implement and the estimated zones. detecting motion data of an off-road vehicle traversing a field or work site during a sampling interval, the motion data comprising ground speed of the off-road vehicle; and detecting roll data of the off-road vehicle for the sampling interval to obtain a roll acceleration; characterized by detecting pitch data of the off-road vehicle for the sampling interval to obtain a pitch acceleration; determining a surface roughness index based on the detected motion data, pitch data and roll data for the sampling interval; displaying the surface roughness index to a user or operator of the vehicle, estimating zones with corresponding surface roughness index ranges within a field or work site based on the determined surface roughness index as a vehicle traverses or traversed the field or work site over multiple sampling intervals, determining a position of a vehicle, or its implement, in the field or in the work site with respect to the estimated zones of different corresponding surface roughness index ranges; and estimating a vehicle ground speed setting for the vehicle consistent with alignment and/or overlap of the determined position of the implement and the estimated zones.