mhurhangee/ep-ind-claims huggingface dataset:
Pressurized-gas bottle having a bottle valve for filling with gas and extraction of gas, and having a valve protection device (2, 20, 41) for protecting the bottle valve against damage, wherein the valve protection device (2, 20, 41) comprises a housing (21, 38, 42) which is mounted onto a neck of the pressurized-gas bottle and which is provided with an access opening (5, 6, 24, 45) which permits access to the bottle valve, wherein the valve protection device (2, 20, 41) is provided with a tamper-proof securing means (9, 27, 48) comprising a securing element (10, 35, 50), which bars access to the bottle valve, and comprising means for fastening the securing element (10, 35, 50) to the housing of the valve protection device (2, 20, 41), wherein, for the purpose of safeguarding the bottle valve, the tamper-proof securing means (9, 27, 35, 48) extends with a securing element (10, 35, 50) transversely over at least a part of the access opening (5, 6, 24, 45), and in that the securing element (10, 35, 50) is connected by way of connecting elements (11, 12, 31, 32) to the housing (21, 38, 42) of the valve protection device (2, 20, 41) on at least two opposite sides of the access opening (5, 6, 24), wherein a predetermined breaking point (15, 33, 34, 54, 54') is provided on at least one connecting element (11, 12, 31, 32, 52, 52'), characterized in that, as connecting element (11, 12, 31, 32, 52, 52'), a plastic part which can be connected to the valve protection device (2, 20, 41) and which has a weakness zone as predetermined breaking point (15, 33, 34, 54, 54') is provided, wherein a portion with reduced cross section is provided as weakness zone.
Method for transmitting data between a first subscriber and a second subscriber of a wireless network in a technical facility, wherein the network has a plurality of subscribers, wherein individual communication connections between each two subscribers of the wireless network are each assigned a characteristic value which describes a probability of data being transmitted correctly via the particular communication connection; a plurality of communication paths between the first subscriber and the second subscriber, which each comprise at least one communication connection between each two subscribers, are each assigned a characteristic value which describes a probability of data being transmitted correctly via the particular communication path; at least one communication path is selected for data transmission on the basis of the characteristic values assigned to the communication paths; and data are transmitted between the first subscriber and the second subscriber via the at least one selected communication path, characterised in that a plurality of communication paths that form a communication group are selected for data transmission, wherein the communication group is assigned a characteristic value which describes a probability of data being transmitted correctly via the communication paths of the communication group, wherein the communication paths of a communication group are arranged in parallel, and wherein the characteristic value assigned to the communication group exceeds a predetermined threshold. individual communication connections between each two subscribers of the wireless network are each assigned a characteristic value which describes a probability of data being transmitted correctly via the particular communication connection; a plurality of communication paths between the first subscriber and the second subscriber, which each comprise at least one communication connection between each two subscribers, are each assigned a characteristic value which describes a probability of data being transmitted correctly via the particular communication path; at least one communication path is selected for data transmission on the basis of the characteristic values assigned to the communication paths; and data are transmitted between the first subscriber and the second subscriber via the at least one selected communication path, characterised in that a plurality of communication paths that form a communication group are selected for data transmission, wherein the communication group is assigned a characteristic value which describes a probability of data being transmitted correctly via the communication paths of the communication group, wherein the communication paths of a communication group are arranged in parallel, and wherein the characteristic value assigned to the communication group exceeds a predetermined threshold.
A communication device comprising: an input unit configured for inputting user operations; a communication unit configured for performing bidirectional communication; and a control unit configured for controlling operations of the device, wherein the control unit is configured to enable the communication unit to transmit a remote control code with respect to an operation target device in accordance with the user operation to the input unit characterised in that the control unit is configured for, after transmission of the remote control code, repeatedly executing a status check communication procedure including transmission of a status inquiry whether transmission information with respect to the communication device has been generated by the operation target device and waiting for receiving a status response from the operation target device, wherein the control unit is configured to enable the communication unit to repeat the status inquiry, when the status response not including transmission information is received as the status response from the operation target device, and to stop transmitting of further status inquiries, when the status response including transmission information is received as the status response from the operation target device, wherein the control unit is configured to enable the communication unit to enter a dormant state after receiving the status response not including transmission information. an input unit configured for inputting user operations; a communication unit configured for performing bidirectional communication; and a control unit configured for controlling operations of the device, wherein the control unit is configured to enable the communication unit to transmit a remote control code with respect to an operation target device in accordance with the user operation to the input unit characterised in that the control unit is configured for, after transmission of the remote control code, repeatedly executing a status check communication procedure including transmission of a status inquiry whether transmission information with respect to the communication device has been generated by the operation target device and waiting for receiving a status response from the operation target device, wherein the control unit is configured to enable the communication unit to repeat the status inquiry, when the status response not including transmission information is received as the status response from the operation target device, and to stop transmitting of further status inquiries, when the status response including transmission information is received as the status response from the operation target device, wherein the control unit is configured to enable the communication unit to enter a dormant state after receiving the status response not including transmission information.
An explosion-proof material composed of a high-porosity material sheet, said high porosity material sheet being rolled up into a multilayer material body with one side edge of it as center and along the direction perpendicular to this side edge, a skeleton is inserted in the gaps between any two layers of the multilayer high-porosity material sheet for fixing and supporting the material body, characterized in that said skeleton is at least one of formed by interweaving a carriage with a stiffening ring, said stiffening ring being located in the middle of the carriage and fixed onto it, the shape of the skeleton corresponding to the shape of material body, composed of columns and beams, said columns being inserted in the multilayer high porosity materials of the material body and projecting out of the upper and lower end surfaces of the material body, said beams being attached onto the projected end parts of the columns on the upper and lower end surfaces of the material body, composed of more than one framework, these frameworks being set up in the multilayer high-porosity materials connecting to one another at their top and bottom, and composed of two parts, the upper portion skeleton and the lower portion skeleton, each including mutually connected end frames and insertion frames, wherein said end frames being set on the upper and lower end surfaces of the material body, and said insertion frames being inserted into the gaps between any two adjacent layers of the multilayer high-porosity material of the material body for the purpose of fixing and supporting.
A wound cover connecting device for sealingly connecting a drainage tube and a wound cover closing a wound, wherein the device has a main body for bearing sealingly on an outer face of the cover, characterized in that the device has at least one penetration element for creating a through-opening in the cover.
Sealing system for attaching a windowsill to a window frame or a building, having - a sealing film serving to form a watertight and/or airtight layer, - an insulating element arranged on one side of the sealing film, extending in the film longitudinal direction and connected to the sealing film, in order to insulate an interspace between windowsill and building, - at least one adhesive element (11, 12) arranged on the same side of the sealing film as the insulating element, extending parallel to the insulating element in the film longitudinal direction and connected to the sealing film, in order to fix the sealing system to the window frame and/or the building, characterized by a second sealing film serving to form a watertight and/or airtight layer and having a first portion and a second portion adjacent thereto, wherein the first portion is connected to the first sealing film and the second portion is designed to seal off a joint between the building and the insulating element. - a sealing film serving to form a watertight and/or airtight layer, - an insulating element arranged on one side of the sealing film, extending in the film longitudinal direction and connected to the sealing film, in order to insulate an interspace between windowsill and building, - at least one adhesive element (11, 12) arranged on the same side of the sealing film as the insulating element, extending parallel to the insulating element in the film longitudinal direction and connected to the sealing film, in order to fix the sealing system to the window frame and/or the building,
A method comprising: obtaining a first set of estimated crosstalk coefficients measuring crosstalk caused by respective ones of a first portion of a plurality of communication channels over which signals are to be transmitted from a transmitter to a plurality of receivers; and interpolating a second set of estimated crosstalk coefficients measuring crosstalk caused by respective ones of a second portion of the plurality of communication channels based on the first set of estimated crosstalk coefficients measuring crosstalk caused by respective ones of the first portion of the plurality of communication channels; wherein an estimated crosstalk coefficient for a given one of the plurality of communication channels measures crosstalk caused by the given one of the plurality of communication channels on at least another one of the plurality of communication channels; wherein the second portion of the plurality of communication channels comprises at least one communication channel not in the first portion of the plurality of communication channels, wherein the interpolating step further comprises generating interpolated phase and amplitude values that comprise the second set of estimated crosstalk coefficients from measured phase and amplitude values that comprise the first set of estimated crosstalk coefficients. obtaining a first set of estimated crosstalk coefficients measuring crosstalk caused by respective ones of a first portion of a plurality of communication channels over which signals are to be transmitted from a transmitter to a plurality of receivers; and interpolating a second set of estimated crosstalk coefficients measuring crosstalk caused by respective ones of a second portion of the plurality of communication channels based on the first set of estimated crosstalk coefficients measuring crosstalk caused by respective ones of the first portion of the plurality of communication channels; wherein an estimated crosstalk coefficient for a given one of the plurality of communication channels measures crosstalk caused by the given one of the plurality of communication channels on at least another one of the plurality of communication channels; wherein the second portion of the plurality of communication channels comprises at least one communication channel not in the first portion of the plurality of communication channels, wherein the interpolating step further comprises generating interpolated phase and amplitude values that comprise the second set of estimated crosstalk coefficients from measured phase and amplitude values that comprise the first set of estimated crosstalk coefficients.
A workpiece oiler for contactless greasing of workpieces, in particular punched and shaped components, with at least one spray device, in particular in the form of a single-component nozzle, and at least one device for limiting the expansion of the spray jet, in particular the width of the spray jet, that is arranged in the straying direction before and spaced apart from said spray device, in which the device for limiting the width of the spray jet is designed in the form of two baffle plates lying opposite each other, the free end regions of which are arranged in a plane lying opposite and spaced apart from each other so that, with a viewing direction toward the nozzle of the spray device, a slot-shaped free region results between the two baffle plates, through which the spray jet can pass in the direction of the workpiece, wherein the spray jet is restricted or respectively cut off in two edge regions lying opposite each other, which prevents the outermost lateral regions of the spray jet from striking the workpiece, characterized in that the free end region is designed chamfered, wherein the angle of the chamfer with reference to the angle of the spray jet is designed so that the spray jet does not touch the chamfer.
Securing means for an actuating handle for windows or doors or for components (K, N) that are moveable relative to one another, comprising - a detent sub-assembly (K, 18) and a recess sub-assembly comprising spatially directly associated surfaces that are facing each other, namely a detent sub-assembly outer surface and a recess sub-assembly outer surface, further comprising - at least one prestressed detent element (R, 40) which is kept and in particular is trapped in a guide (F, 30) of the detent sub-assembly (K, 18) so as to project beyond the detent sub-assembly outer surface and partly enter a recess that is provided at a recess sub-assembly outer surface of the recess sub-assembly facing the detent sub-assembly (K, 18), characterised by a design and configuration of the guide (F, 30) of the or each detent element (R, 40) that - the detent element (R, 40) rests only unilaterally or point-wise against a supporting point of the guide (F, 30) and at an associated attachment point of the recess and that - at the detent assemblies (K, 18; N, 24/38) to be latched at least two associated securing pairs are provided which are each formed of a detent element (R, 40) and a recess (L, 24), and that - the detent elements engage in equal parts at a circumference of the recess sub-assembly and the attachment points of the recesses are distributed on the circumference of the recess sub-assembly at unequal angles. - a detent sub-assembly (K, 18) and a recess sub-assembly comprising spatially directly associated surfaces that are facing each other, namely a detent sub-assembly outer surface and a recess sub-assembly outer surface, further comprising - at least one prestressed detent element (R, 40) which is kept and in particular is trapped in a guide (F, 30) of the detent sub-assembly (K, 18) so as to project beyond the detent sub-assembly outer surface and partly enter a recess that is provided at a recess sub-assembly outer surface of the recess sub-assembly facing the detent sub-assembly (K, 18), characterised by a design and configuration of the guide (F, 30) of the or each detent element (R, 40) that - the detent element (R, 40) rests only unilaterally or point-wise against a supporting point of the guide (F, 30) and at an associated attachment point of the recess and that - at the detent assemblies (K, 18; N, 24/38) to be latched at least two associated securing pairs are provided which are each formed of a detent element (R, 40) and a recess (L, 24), and that - the detent elements engage in equal parts at a circumference of the recess sub-assembly and the attachment points of the recesses are distributed on the circumference of the recess sub-assembly at unequal angles.
A method for controlling multichannel cascade between two cascaded media control servers (501,502), comprising: receiving at a cascaded media control server a service request message; choosing, by the cascaded media control server, a target channel from all the channels multichannel-cascaded with an opposite cascaded media control server according to the service request message and a preset channel usage rule; and sending, by the cascaded media control server, information about the determined target channel to the opposite cascaded media control server so as to enable the opposite cascaded media control server to carry out code stream switching according to the information about the target channel; wherein choosing a target channel from all the channels multichannel-cascaded with the opposite cascaded media control server according to the preset channel usage rule comprises: judging whether a preset condition for setting a target channel is met; and if the preset condition for setting a target channel is met, setting a target channel; if the preset condition for setting a target channel is not met, preempting a target channel according to a preset preemption rule. receiving at a cascaded media control server a service request message; choosing, by the cascaded media control server, a target channel from all the channels multichannel-cascaded with an opposite cascaded media control server according to the service request message and a preset channel usage rule; and sending, by the cascaded media control server, information about the determined target channel to the opposite cascaded media control server so as to enable the opposite cascaded media control server to carry out code stream switching according to the information about the target channel; wherein choosing a target channel from all the channels multichannel-cascaded with the opposite cascaded media control server according to the preset channel usage rule comprises: judging whether a preset condition for setting a target channel is met; and if the preset condition for setting a target channel is met, setting a target channel; if the preset condition for setting a target channel is not met, preempting a target channel according to a preset preemption rule. judging whether a preset condition for setting a target channel is met; and if the preset condition for setting a target channel is met, setting a target channel; if the preset condition for setting a target channel is not met, preempting a target channel according to a preset preemption rule.
Method for controlling weed in an area, comprising of: - heating water at least at one heating location; - supplying the heated water to the reservoir of at least one watering vehicle, optionally at the heating location; - displacing the vehicle to the area with the weed to be controlled; - displacing a thermally insulated supply reservoir with the hot water to the area with the weed to be controlled for locally supplying hot water to the at least one vehicle reservoir; and - spraying the weed with the hot water from the vehicle while displacing the vehicle through the area. - heating water at least at one heating location; - supplying the heated water to the reservoir of at least one watering vehicle, optionally at the heating location; - displacing the vehicle to the area with the weed to be controlled; - displacing a thermally insulated supply reservoir with the hot water to the area with the weed to be controlled for locally supplying hot water to the at least one vehicle reservoir; and - spraying the weed with the hot water from the vehicle while displacing the vehicle through the area.
A backlash reducing gear using in an opposed-piston internal combustion engine having a gear train with an arrangement of gears (36a, 39a, 37, 39b, 36b) coupling at least one crankshaft (21, 22) to an output drive, the backlash reducing gear characterized by: a first gear with gear teeth and a recess (310, 210) receiving oil; a second gear with gear teeth and a protrusion fitting and moving within the recess in the first gear; a gear post on which the first gear and the second gear are mounted, the first gear and second gear configured to rotate about the gear post; an oil groove formed between the first and second gear, the oil groove in fluid communication with the recess (310, 210); an oil inlet in fluid communication with a source of oil and the recess (310, 210); an oil leak orifice in fluid communication with the oil groove and/or the recess (310, 210); and a check valve (340, 540) in fluid communication with the oil inlet and the recess (310, 210), the check valve (340, 540) configured to maintain a static hydraulic pressure within the backlash reducing gear at a level that maintains minimal backlash between the backlash reducing gear and at least one adjacent gear in the gear train, in which the oil inlet, oil groove, and recess form an oil flow path that is configured such that when the backlash reducing gear is in use, the oil flows along the oil groove so that the hydraulic pressure is exerted on all sides of the protrusion. a first gear with gear teeth and a recess (310, 210) receiving oil; a second gear with gear teeth and a protrusion fitting and moving within the recess in the first gear; a gear post on which the first gear and the second gear are mounted, the first gear and second gear configured to rotate about the gear post; an oil groove formed between the first and second gear, the oil groove in fluid communication with the recess (310, 210); an oil inlet in fluid communication with a source of oil and the recess (310, 210); an oil leak orifice in fluid communication with the oil groove and/or the recess (310, 210); and a check valve (340, 540) in fluid communication with the oil inlet and the recess (310, 210), the check valve (340, 540) configured to maintain a static hydraulic pressure within the backlash reducing gear at a level that maintains minimal backlash between the backlash reducing gear and at least one adjacent gear in the gear train, in which the oil inlet, oil groove, and recess form an oil flow path that is configured such that when the backlash reducing gear is in use, the oil flows along the oil groove so that the hydraulic pressure is exerted on all sides of the protrusion.