mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for welding hard material bodies to teeth of a saw blade, in particular a band saw blade or a circular saw blade, comprising a saw blade feed device for moving the saw blade in a feed direction, such that a relevant intended tooth of the saw blade can be brought into a target position in a working region of the apparatus, a supply device for supplying a relevant hard material body, and a resistance welding device having a welding electrode which can be advanced into the working region and withdrawn again from the working region, the supply device being designed for supplying and transferring a relevant hard material body to the welding electrode, and it being possible for the welding electrode, together with the hard material body transferred thereto, to be advanced into the working region in such a way that the hard material body can be brought into contact with the tooth located in the target position, characterized in that the supply device comprises a plate which can be moved back and forth, shaken or vibrated in order to change the arrangement of hard material bodies placed on the plate (102, and comprises an image detection device for detecting the hard material bodies placed on the plate, an image processing device for selecting at least one suitable hard material body which corresponds to a first specification and for determining the position of the at least one suitable hard material body, and a robot gripping device for picking up the suitable hard material body from the plate and for transferring the hard material body which has been picked-up to the welding electrode. a saw blade feed device for moving the saw blade in a feed direction, such that a relevant intended tooth of the saw blade can be brought into a target position in a working region of the apparatus, a supply device for supplying a relevant hard material body, and a resistance welding device having a welding electrode which can be advanced into the working region and withdrawn again from the working region, the supply device being designed for supplying and transferring a relevant hard material body to the welding electrode, and it being possible for the welding electrode, together with the hard material body transferred thereto, to be advanced into the working region in such a way that the hard material body can be brought into contact with the tooth located in the target position, characterized in that the supply device comprises a plate which can be moved back and forth, shaken or vibrated in order to change the arrangement of hard material bodies placed on the plate (102, and comprises an image detection device for detecting the hard material bodies placed on the plate, an image processing device for selecting at least one suitable hard material body which corresponds to a first specification and for determining the position of the at least one suitable hard material body, and a robot gripping device for picking up the suitable hard material body from the plate and for transferring the hard material body which has been picked-up to the welding electrode.
A transducer comprising: an electroactive polymer film comprising a thin dielectric elastomer layer, wherein a portion of the dielectric elastomer layer is sandwiched between first and second electrodes wherein the overlapping portions of the electrodes define an active film region with the remaining portion of film defining an inactive film region; a first conductive layer disposed on at least a portion of the inactive film region and electrically coupled to the first electrode, and a second conductive layer disposed on at least a portion of the inactive film region and electrically coupled to the second electrode; and at least one passive polymer layer, the polymer layer extending over at least a portion of one side of the electroactive polymer film, wherein activation of the active region changes a thickness dimension of the passive polymer layer; and characterised in having a first conductive via extending through the transducer at a location which includes the first electrode and a second conductive via extending through the transducer at a location which includes the second electrode. an electroactive polymer film comprising a thin dielectric elastomer layer, wherein a portion of the dielectric elastomer layer is sandwiched between first and second electrodes wherein the overlapping portions of the electrodes define an active film region with the remaining portion of film defining an inactive film region; a first conductive layer disposed on at least a portion of the inactive film region and electrically coupled to the first electrode, and a second conductive layer disposed on at least a portion of the inactive film region and electrically coupled to the second electrode; and at least one passive polymer layer, the polymer layer extending over at least a portion of one side of the electroactive polymer film, wherein activation of the active region changes a thickness dimension of the passive polymer layer; and characterised in having a first conductive via extending through the transducer at a location which includes the first electrode and a second conductive via extending through the transducer at a location which includes the second electrode.
Application unit for coating a substrate with a fluid, comprising a first cylinder which, together with a second cylinder, forms an application nip in which the substrate that is to be guided through the application nip and coated is or can be acted upon with the fluid on the side facing toward the first cylinder, wherein the first cylinder can be directly or indirectly acted upon, on the lateral surface thereof, by a supply device with the fluid to be applied, wherein the supply device comprises a first roller and a downstream second roller, which between them form a first nip with a gusset located thereabove, wherein a fluid reservoir is provided in the gusset between two axially spaced-apart side walls, and wherein the respective side wall laterally delimiting the fluid reservoir comprises, toward one of the two rollers (07; 06) that together form the first nip, a sealing surface (18.1) facing toward the roller lateral surface, which sealing surface has a contour corresponding to the roller lateral surface and together with the roller lateral surface forms a seal against lateral passage of the fluid, wherein the supply device comprises, downstream of the second roller, a third roller which forms a second nip with the second roller, characterized in that the side wall comprises a sealing surface (18.1; 18.3), which cooperates as a seal with the roller lateral surface of the second roller above the second nip and has a contour corresponding to the roller curvature, and/or comprises a sealing surface (19.3), which faces toward the end face of the third roller and cooperates as a seal with the end face of the barrel of the third roller above the second nip.
A method for characterising an amorphous material, comprising the steps of: evaluating a rate of change of an interaction of the amorphous material with electromagnetic radiation with temperature, at an energy corresponding to EM radiation of frequency between 10GHz and 10 THz, in a temperature range below a glass transition temperature, T g; and comparing the rate of change with a predetermined value to assess or predict the resistance to crystallisation of the amorphous material. evaluating a rate of change of an interaction of the amorphous material with electromagnetic radiation with temperature, at an energy corresponding to EM radiation of frequency between 10GHz and 10 THz, in a temperature range below a glass transition temperature, T g; and comparing the rate of change with a predetermined value to assess or predict the resistance to crystallisation of the amorphous material.
Pre-adjustable flow regulator for a heating system having a housing that comprises an inlet connecting piece for a heating medium, an outlet connecting piece for the heating medium, and a pre-adjustable connecting piece, said heating system having a flow regulating module that in dependence upon a pre-adjustment and a pressure difference can change a throughflow for the heating medium, and said heating system having a handle that cooperates with a component of the flow regulating module, said component being arranged in such a manner that it is able to move, so as to pre-adjust the flow, wherein in order to change the pre-adjustment of the throughflow by means of the handle an effective cross-section of a first throughflow opening for the heating medium can be adjusted and wherein in order to regulate the pre-adjusted throughflow of the heating medium a sleeve of the flow regulating module and a pot of the flow regulating module, which are provided in a spring-loaded manner with respect to one another by way of a preloading spring, are arranged in an axially displaceable manner with respect to one another and in dependence upon an axial position, which varies with the pressure difference, a cross section of a second throughflow opening for the heating medium can be changed, wherein the first throughflow opening is provided with regard to a flow direction of the heating medium upstream of the second throughflow opening, characterized in that the inflow to the flow regulating module occurs on the periphery side by way of the first throughflow opening that is provided on the sleeve.
A method of forming an adhesive composition comprising the steps of: (a) combining: (i) a non-deaerated mixture comprising at least one free radically (co)polymerizable ethylenically-unsaturated material wherein the mixture is non-heterogeneous; and (ii) a sealable packaging, wherein the packaging contains the non-deaerated mixture; (b) sealing the non-deaerated mixture in the packaging to form a sealed packaging; (c) exposing the non-deaerated mixture in the sealed packaging to a source of ionizing radiation for a time sufficient to initiate (co)polymerization of at least a portion of the at least one free radically (co)polymerizable ethylenically-unsaturated material to form an adhesive composition in the sealed packaging, wherein the source of ionizing radiation is selected from a gamma ray source, an x-ray source, an electron beam source having an emission energy of greater than 300 keV, and combinations thereof, additionally wherein the polymerization takes place essentially non-adiabatically, further wherein at least a portion of the packaging is meltable and mixable with the adhesive composition so as to provide a coatable adhesive composition when the sealed packaging containing the adhesive composition is heated to a temperature sufficient to melt at least a portion of the packaging. (a) combining: (i) a non-deaerated mixture comprising at least one free radically (co)polymerizable ethylenically-unsaturated material wherein the mixture is non-heterogeneous; and (ii) a sealable packaging, wherein the packaging contains the non-deaerated mixture; (i) a non-deaerated mixture comprising at least one free radically (co)polymerizable ethylenically-unsaturated material wherein the mixture is non-heterogeneous; and (ii) a sealable packaging, wherein the packaging contains the non-deaerated mixture; (b) sealing the non-deaerated mixture in the packaging to form a sealed packaging; (c) exposing the non-deaerated mixture in the sealed packaging to a source of ionizing radiation for a time sufficient to initiate (co)polymerization of at least a portion of the at least one free radically (co)polymerizable ethylenically-unsaturated material to form an adhesive composition in the sealed packaging, wherein the source of ionizing radiation is selected from a gamma ray source, an x-ray source, an electron beam source having an emission energy of greater than 300 keV, and combinations thereof, additionally wherein the polymerization takes place essentially non-adiabatically, further wherein at least a portion of the packaging is meltable and mixable with the adhesive composition so as to provide a coatable adhesive composition when the sealed packaging containing the adhesive composition is heated to a temperature sufficient to melt at least a portion of the packaging.
A leadframe strip comprising: a structure made of a base metal, the structure having a plurality of surfaces (101, 102, 110a, 110b... 110n); and a layer of noble metal on the base metal surfaces, the noble metal layer including a layer of gold in contact with the base metal surfaces and an outermost layer of palladium in contact with the gold layer, characterized in that the gold layer has a thickness between 2 and 5 nm; and in that the palladium layer has a thickness between 5 and 15 nm. a structure made of a base metal, the structure having a plurality of surfaces (101, 102, 110a, 110b... 110n); and a layer of noble metal on the base metal surfaces,
A method of controlling an electric power steering system of a vehicle for zero to low vehicle speeds, the method comprising: in response to determining that one or more hand wheel torque sensors of the vehicle are not enabled, estimating steering rack force to be caused by a tire of the vehicle and a surface of a ground with which the tire is in contact; generating a steering assist torque command based on the estimated steering rack force; and controlling the electric power steering system using the steering assist torque command, characterized by: filtering a hand wheel angle signal with a low-pass filter and filtering a hand wheel velocity signal with a low-pass filter in order to remove noise from, and add a time delay to, these hand wheel signals; and using the filtered hand wheel angle and the filtered hand wheel velocity to estimate the steering rack force. in response to determining that one or more hand wheel torque sensors of the vehicle are not enabled, estimating steering rack force to be caused by a tire of the vehicle and a surface of a ground with which the tire is in contact; generating a steering assist torque command based on the estimated steering rack force; and controlling the electric power steering system using the steering assist torque command, characterized by: filtering a hand wheel angle signal with a low-pass filter and filtering a hand wheel velocity signal with a low-pass filter in order to remove noise from, and add a time delay to, these hand wheel signals; and using the filtered hand wheel angle and the filtered hand wheel velocity to estimate the steering rack force. filtering a hand wheel angle signal with a low-pass filter and filtering a hand wheel velocity signal with a low-pass filter in order to remove noise from, and add a time delay to, these hand wheel signals; and using the filtered hand wheel angle and the filtered hand wheel velocity to estimate the steering rack force.
Kit for a refuse receptacle, comprising a base element and a cover frame which comprise the same number of plug-in receptacles in the edge region thereof, and comprising the same number of equal-length bar elements, wherein each bar element can be inserted at a first end into a plug-in receptacle of the base element and can be inserted at a second end, separated from the first end in a longitudinal direction of the bar element, into one of the plug-in receptacles of the cover frame, wherein the bar elements each comprise an outer face which aligns with an outer periphery of the base element and with an outer periphery of the cover frame when the bar elements are inserted in the base element and in the cover frame, wherein the outer faces and the outer peripheries form a mounting face surrounding the refuse receptacle for an outer skin of the refuse receptacle, and wherein the kit further comprises an exchangeable, flexible outer skin made from a textile, film or tarpaulin, having a width which corresponds to the length of the bar element plus the vertical dimensions of the outer peripheries of the base element and the cover frame, characterised in that the outer skin has a length which, in order to form an overlapping region, is slightly greater than the length of the outer periphery of base element and of the cover frame, wherein, in the overlapping region, ends of the outer skin are connected together in the longitudinal direction by means of hook-and-loop fasteners, and wherein hook-and-loop fasteners are also provided on the edges of the outer skin extending in the longitudinal direction, which are connected to corresponding hook-and-loop fastener mating pieces on the outer periphery of the base element and of the cover frame.
A method for controlling a number of robots to emergently stop, wherein the method comprises steps of: arranging multiple position points in a site where the robots work, configuring position identifiers respectively for the multiple position points, and monitoring working situations of the robots in the site, and judging, when a fault signal reported by the robot(s) is detected, whether all the robots in the site need to be controlled to emergently stop, according to the fault signal, wherein if yes, a current position and a moving speed of each of the robots are detected, and each of the robots is allocated with a position point in the site as a corresponding emergency stop position, according to the current position and the moving speed of each of the robots, and each of the robots is controlled to move to the corresponding emergency stop position, and each of the robots is controlled to stop movement after the robot moves to the corresponding emergency stop position. arranging multiple position points in a site where the robots work, configuring position identifiers respectively for the multiple position points, and monitoring working situations of the robots in the site, and judging, when a fault signal reported by the robot(s) is detected, whether all the robots in the site need to be controlled to emergently stop, according to the fault signal, wherein if yes, a current position and a moving speed of each of the robots are detected, and each of the robots is allocated with a position point in the site as a corresponding emergency stop position, according to the current position and the moving speed of each of the robots, and each of the robots is controlled to move to the corresponding emergency stop position, and each of the robots is controlled to stop movement after the robot moves to the corresponding emergency stop position.
A method for controlling cell reselection in a wireless transmit receive unit,WTRU, configured to transmit on common enhanced dedicated channel, E-DCH, resources in CELL-FACH state comprising: determining the start of a no reselection period; and on the condition that the no reselection period has started, restricting cell reselection to a new cell until a reselection condition is detected characterized by the WTRU continuing to make and report measurements, and rank neighboring cells during the no reselection period while the WTRU has an allocated common E-DCH resource. determining the start of a no reselection period; and on the condition that the no reselection period has started, restricting cell reselection to a new cell until a reselection condition is detected characterized by the WTRU continuing to make and report measurements, and rank neighboring cells during the no reselection period while the WTRU has an allocated common E-DCH resource.
A device for setting a press-in element into a workpiece, especially made of plastics material or fibre composite material such as CFRP, especially in vehicle manufacturing, at a specified point, wherein the device has: - a basic body; - a fixing unit attached to the basic body, which unit is designed for fixing the workpiece; and - a machining unit, which is attached to the basic body and has: - a drilling unit which is designed to form a bore in the workpiece which is fixed by the fixing unit; and - a pressing-in unit, which is designed for pressing a press-in element into the bore, characterised in that the pressing-in unit is designed in order to receive the press-in element elastically such that the press-in element is held on the pressing-in unit counter to an action of inertial forces and the force of gravity. - a basic body; - a fixing unit attached to the basic body, which unit is designed for fixing the workpiece; and - a machining unit, which is attached to the basic body and has: - a drilling unit which is designed to form a bore in the workpiece which is fixed by the fixing unit; and - a pressing-in unit, which is designed for pressing a press-in element into the bore, characterised in that the pressing-in unit is designed in order to receive the press-in element elastically such that the press-in element is held on the pressing-in unit counter to an action of inertial forces and the force of gravity.
A container being formed as an integral form and comprising: a body (10, 10A) comprising a body space formed in the body (10, 10A); and two connecting plates formed on two opposite sides of the body (10, 10A); two handles (20, 20A, 20B) connected with the connecting plates of the body (10, 10A), and connecting portions between the handles (20, 20A, 20B) and the body (10, 10A) being bendable, and the handles (20, 20A, 20B) selectively folded relative to the body (10, 10A); two lids (30, 30A) connected with the body (10, 10A), and connecting portions between the body (10, 10A) and the lids (30, 30A) being bendable, characterized in that the container further comprises a handle combination structure formed on the handles (20, 20A, 20B) to selectively combine the handles (20, 20A, 20B) with each other; and the two lids (30, 30A) are respectively located in spaces which are respectively formed between the body (10, 10A) and the handles (20, 20A). a body (10, 10A) comprising a body space formed in the body (10, 10A); and two connecting plates formed on two opposite sides of the body (10, 10A); two handles (20, 20A, 20B) connected with the connecting plates of the body (10, 10A), and connecting portions between the handles (20, 20A, 20B) and the body (10, 10A) being bendable, and the handles (20, 20A, 20B) selectively folded relative to the body (10, 10A); two lids (30, 30A) connected with the body (10, 10A), and connecting portions between the body (10, 10A) and the lids (30, 30A) being bendable, characterized in that the container further comprises a handle combination structure formed on the handles (20, 20A, 20B) to selectively combine the handles (20, 20A, 20B) with each other; and the two lids (30, 30A) are respectively located in spaces which are respectively formed between the body (10, 10A) and the handles (20, 20A).
A method for dynamically managing power consumption in a local area network of devices, the network including a first device having at least one service allocable for use by a second device of the network, the method comprising: identifying a request by the second device for service status information relating to the service; the said service status information comprising an indication of a future availability of the service; communicating service status information to the second device; identifying a request for access to the service by the second device; activating the service based on the future availability of the service and in response to the request for access prior to or at a desired future time and/or following completion of a scheduled period of inactivity, prior to providing access to the service to the second device. identifying a request by the second device for service status information relating to the service; the said service status information comprising an indication of a future availability of the service; communicating service status information to the second device; identifying a request for access to the service by the second device; activating the service based on the future availability of the service and in response to the request for access prior to or at a desired future time and/or following completion of a scheduled period of inactivity, prior to providing access to the service to the second device.