mhurhangee/ep-ind-claims huggingface dataset:
A lift arm assembly (350-2; 450) of a power machine (100; 200; 300; 400) having an attachment structure for securing an implement thereto, the lift arm assembly comprising a lift arm including a main lift arm portion (316-2; 416) pivotally attached to a frame (110; 310; 410) of the power machine at a first pivot attachment (312; 412) and a telescoping portion (318; 418) that is extendable and retractable relative to the main lift arm portion, the lift arm assembly characterized by further comprising: a variable length link (328-2; 428) pivotally attached to the frame (110; 310; 410) at a second pivot attachment (326; 426); and a fixed length link (322; 422) pivotally attached to the telescoping portion of the main lift arm portion at a third pivot attachment (314; 414) and pivotally attached to the variable length link (328-1; 328-2; 428) at a fourth pivot attachment (320; 420); wherein the lift arm, frame, variable length link and fixed length link form a lift arm four-bar linkage with two variable length links. a variable length link (328-2; 428) pivotally attached to the frame (110; 310; 410) at a second pivot attachment (326; 426); and a fixed length link (322; 422) pivotally attached to the telescoping portion of the main lift arm portion at a third pivot attachment (314; 414) and pivotally attached to the variable length link (328-1; 328-2; 428) at a fourth pivot attachment (320; 420); wherein the lift arm, frame, variable length link and fixed length link form a lift arm four-bar linkage with two variable length links.
An enclosure system comprising: a stator enclosure defining a first enclosure opening; a conduit enclosure coupled to said stator enclosure, said conduit enclosure comprising at least one side wall, a rear wall coupled to said side wall, and an interior cavity, said rear wall defining a first entry port having a first volume; at least one electrical lead extending from said stator enclosure through said first enclosure opening, through said first entry port, and into said interior cavity, said at least one electrical lead occupying a portion of said first volume and leaving a remaining volume; and sealing compound coupled with said first entry port such that substantially all of the remaining volume is occupied; characterized by insulating paper coupled to said rear wall, said insulating paper comprising at least one electrical lead hole defined therein, said insulating paper oriented such that said electrical lead hole is substantially concentrically aligned with said first entry port. a stator enclosure defining a first enclosure opening; a conduit enclosure coupled to said stator enclosure, said conduit enclosure comprising at least one side wall, a rear wall coupled to said side wall, and an interior cavity, said rear wall defining a first entry port having a first volume; at least one electrical lead extending from said stator enclosure through said first enclosure opening, through said first entry port, and into said interior cavity, said at least one electrical lead occupying a portion of said first volume and leaving a remaining volume; and sealing compound coupled with said first entry port such that substantially all of the remaining volume is occupied; characterized by insulating paper coupled to said rear wall, said insulating paper comprising at least one electrical lead hole defined therein, said insulating paper oriented such that said electrical lead hole is substantially concentrically aligned with said first entry port.
A method of forming a composite material comprising nanotubes oriented in a matrix comprising a ceramic material, the method comprising the steps of: providing an array of substantially aligned nanotubes, wherein the nanotubes comprise carbon nanotubes; providing a ceramic matrix material in the form of a solution; applying the solution to the nanotubes; allowing the solution to infiltrate into the array of nanotubes; and sintering the ceramic matrix material to form the composite material, wherein the nanotubes are substantially aligned in the ceramic matrix, wherein the ceramic matrix is formed by a sol-gel process. providing an array of substantially aligned nanotubes, wherein the nanotubes comprise carbon nanotubes; providing a ceramic matrix material in the form of a solution; applying the solution to the nanotubes; allowing the solution to infiltrate into the array of nanotubes; and sintering the ceramic matrix material to form the composite material, wherein the nanotubes are substantially aligned in the ceramic matrix, wherein the ceramic matrix is formed by a sol-gel process.
A synthesis device for synthesis of macromolecules, the device comprising an ion-releaser having a synthesis surface comprising an array of synthesis locations (8a-f) arranged for synthesis of the macromolecules, wherein the ion-releaser comprising an ion-source electrode being an ion intercalation electrode and thereby arranged to comprise releasable ions, and arranged in contact with each of the synthesis locations (8a-f) of the synthesis surface, thereby arranged to release ions to the synthesis locations (8a-f), and activating electrodes (14a,b) arranged in contact with the ion-source electrode, wherein each one of the activating electrodes (14a,b) is arranged in association with one of the synthesis locations (8a-f), respectively, via the ion-source electrode, and wherein the ion-releaser is arranged to release at least a portion of the releasable ions from the ion-source electrode to one of the synthesis locations (8a-f), by activation of the activating electrode (14a,b) associated with said one of the synthesis locations (8a-f). an ion-releaser having a synthesis surface comprising an array of synthesis locations (8a-f) arranged for synthesis of the macromolecules, wherein the ion-releaser comprising
A device for sharpening, particularly resharpening, knives and if appropriate, wear plates of a knife ring for a knife ring cutter by means of grinding processing, using at least one grinding device, characterized in that the device has at least one turntable, on which the knife ring can be fastened in such a manner that the knife ring can be rotated in a lying arrangement with vertically orientated axis relatively to the grinding device, wherein the turntable and the grinding device are arranged on a pivot table, wherein the pivot table is fastened on a machine frame, such that it can be pivoted about a horizontal axis, for tilting the knife ring out of a dismounting position with a horizontal axis into a machining position with a vertical axis.
A method of controlling transmission of Uplink Control Information, UCI, by a User Equipment, UE, configured to be in wireless communication with a processor via a wireless network associated therewith, the method comprising the steps of: using the processor, providing radio signaling to the UE; using the processor, supplying a UCI mapping bit to the UE via the radio signaling so as to control the UE's transmission of the UCI in accordance with a value of the UCI mapping bit, wherein supplying the UCI mapping bit includes one of the following: using the processor, supplying a first value for the UCI mapping bit to instruct the UE to implement a first mode of UCI transmission; and using the processor, supplying a second value for the UCI mapping bit to instruct the UE to implement a second mode of UCI transmission, wherein the second value is different from the first value, characterized by the first mode of UCI transmission and the second mode of UCI transmission differ when there is Physical Uplink Shared Channel, PUSCH, transmission on an Uplink Component Carrier, UL CC, but not on an UL Primary Cell. using the processor, providing radio signaling to the UE; using the processor, supplying a UCI mapping bit to the UE via the radio signaling so as to control the UE's transmission of the UCI in accordance with a value of the UCI mapping bit, wherein supplying the UCI mapping bit includes one of the following: using the processor, supplying a first value for the UCI mapping bit to instruct the UE to implement a first mode of UCI transmission; and using the processor, supplying a second value for the UCI mapping bit to instruct the UE to implement a second mode of UCI transmission, wherein the second value is different from the first value, characterized by the first mode of UCI transmission and the second mode of UCI transmission differ when there is Physical Uplink Shared Channel, PUSCH, transmission on an Uplink Component Carrier, UL CC, but not on an UL Primary Cell. using the processor, supplying a first value for the UCI mapping bit to instruct the UE to implement a first mode of UCI transmission; and using the processor, supplying a second value for the UCI mapping bit to instruct the UE to implement a second mode of UCI transmission, wherein the second value is different from the first value, characterized by the first mode of UCI transmission and the second mode of UCI transmission differ when there is Physical Uplink Shared Channel, PUSCH, transmission on an Uplink Component Carrier, UL CC, but not on an UL Primary Cell.
An overload impact-resistant planetary reducer, wherein the overload impact-resistant planetary reducer comprises an outer tooth portion of a planetary gear made of a rigid material and a buffer layer assembled on an inner side of the outer tooth portion and capable of being elastically deformed; the buffer layer is made of a material having certain rigidity and capable of being elastically deformed under an impact force, and is coaxially nested with the outer tooth portion to form a reducer component which is the planetary gear capable of preventing overload impact, wherein in a case that the outer tooth portion is subjected to an impact force, the buffer layer is configured to generate deformation, causing the outer tooth portion to displace relative to a planetary gear shaft; and in a case that the impact force on the outer tooth portion disappears, the deformation of the buffer layer is configured to disappear, causing the outer tooth portion to reset relative to the planetary gear shaft, characterized in that the buffer layer is provided with at least one deformation through hole capable of being deformed by the impact force; the deformation through hole being capable of generating elastic deformation in a case of being subjected to the impact force, and in that the buffer layer includes rubber, silica gel, plastic and polyurethane. the buffer layer is made of a material having certain rigidity and capable of being elastically deformed under an impact force, and is coaxially nested with the outer tooth portion to form a reducer component which is the planetary gear capable of preventing overload impact, wherein in a case that the outer tooth portion is subjected to an impact force, the buffer layer is configured to generate deformation, causing the outer tooth portion to displace relative to a planetary gear shaft; and in a case that the impact force on the outer tooth portion disappears, the deformation of the buffer layer is configured to disappear, causing the outer tooth portion to reset relative to the planetary gear shaft, characterized in that the buffer layer is provided with at least one deformation through hole capable of being deformed by the impact force; the deformation through hole being capable of generating elastic deformation in a case of being subjected to the impact force, and in that the buffer layer includes rubber, silica gel, plastic and polyurethane.
A composition consisting essentially of: (a) E-1-chloro-2,3,3,3-tetrafluoropropene; and (b) a component selected from the group consisting of E-1,1,1,4,4,4-hexafluoro-2-butene and E-1,1,1,4,4,5,5,5-octafluoro-2-pentene; wherein said component is present in an effective amount to form an azeotrope-like combination with the E-1-chloro-2,3,3,3-tetrafluoropropene. (a) E-1-chloro-2,3,3,3-tetrafluoropropene; and (b) a component selected from the group consisting of E-1,1,1,4,4,4-hexafluoro-2-butene and E-1,1,1,4,4,5,5,5-octafluoro-2-pentene; wherein said component is present in an effective amount to form an azeotrope-like combination with the E-1-chloro-2,3,3,3-tetrafluoropropene.
A proton-conducting polymer membrane based on polyazoles, obtainable by a process comprising the steps of A) mixing: (i) one or more aromatic tetraamino compounds and (ii) one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or (iii) one or more aromatic and/or heteroaromatic diaminocarboxylic acids, in polyphosphoric acid to form a solution and/or dispersion B) heating the mixture from step A), preferably under inert gas, and polymerizing until an intrinsic viscosity of at least 0.8dl/g, preferably at least 1.0dl/g, in particular at least 1.5dl/g, is obtained for the polymer being formed, C) applying a membrane using the mixture according to step B) on a carrier or on an electrode, D) optionally heating the membrane on the carrier or electrode obtained from step C), E) treating the membrane formed in step C) or D) in the presence of water and/or moisture, F) removal of the membrane from the carrier, characterized in that the total content of all polyazole polymers in the membrane is at least 5% by weight and up to about 25% by weight and said total content includes any acids, such as polyphosphoric acid and/or phosphoric acid and water being present, said total content excluding however any optional additives. A) mixing: (i) one or more aromatic tetraamino compounds and (ii) one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or (iii) one or more aromatic and/or heteroaromatic diaminocarboxylic acids, in polyphosphoric acid to form a solution and/or dispersion (i) one or more aromatic tetraamino compounds and (ii) one or more aromatic carboxylic acids or esters thereof which contain at least two acid groups per carboxylic acid monomer, or (iii) one or more aromatic and/or heteroaromatic diaminocarboxylic acids, B) heating the mixture from step A), preferably under inert gas, and polymerizing until an intrinsic viscosity of at least 0.8dl/g, preferably at least 1.0dl/g, in particular at least 1.5dl/g, is obtained for the polymer being formed, C) applying a membrane using the mixture according to step B) on a carrier or on an electrode, D) optionally heating the membrane on the carrier or electrode obtained from step C), E) treating the membrane formed in step C) or D) in the presence of water and/or moisture, F) removal of the membrane from the carrier,
Electrical hand-operated power tool with a manually actuable electrical switch, with a disconnect switch for disconnecting and connecting an electrical power supply to at least one electrical component of the hand-operated power tool, a setpoint generator to preset a setpoint value, in particular a set speed value for a drive motor, and an actuating device for simultaneous actuation of the disconnect switch and the setpoint generator, wherein the actuating device on the one hand and the disconnect switch and the setpoint generator on the other hand are mounted so as to be movable relative to one another, characterised in that the disconnect switch and the setpoint generator are switching elements actuable without contact and that the actuating device includes a slide, mounted movably on a base body which carries the disconnect switch and the setpoint generator.
A programmable computer numeric control machine, the CNC machine comprising: a first worktable extending in a first plane; a second worktable extending in a second plane, wherein the second plane is oriented at an angle relative to the first plane; at least one conveyor belt (38, 48) operably coupled to the first worktable; a printing gantry displaceable along a first axis of the CNC machine; and an applicator having a nozzle configured to deposit material on the second worktable, characterized in that the CNC machine further comprises a chill plate located at a front edge of the first worktable. a first worktable extending in a first plane; a second worktable extending in a second plane, wherein the second plane is oriented at an angle relative to the first plane; at least one conveyor belt (38, 48) operably coupled to the first worktable; a printing gantry displaceable along a first axis of the CNC machine; and an applicator having a nozzle configured to deposit material on the second worktable, characterized in that the CNC machine further comprises a chill plate located at a front edge of the first worktable.
A liquid rocket engine using a pump driven by an electric motor, the liquid rocket engine comprising: a main combustor to receive and combust an oxidant and a fuel; a main oxidant line to guide the oxidant accommodated in an oxidant tank to the main combustor; a main fuel line to guide the fuel accommodated in a fuel tank to the main combustor; an oxidant pump installed at the main oxidant line; and a fuel pump installed at the main fuel line; characterized by an electric motor installed between the oxidant pump and the fuel pump and uniaxially driving the oxidant pump and the fuel pump; a cooling line branched from a side of the main oxidant line to guide a part of the oxidant to the electric motor, or branched from a side of the main fuel line to guide a part of the fuel to the electric motor; and a cooling part connected to the cooling line so as to allow fluid flow therebetween and installed at the electric motor; wherein at least one of the oxidant and the fuel is transferred to the cooling line to cool the electric motor. a main combustor to receive and combust an oxidant and a fuel; a main oxidant line to guide the oxidant accommodated in an oxidant tank to the main combustor; a main fuel line to guide the fuel accommodated in a fuel tank to the main combustor; an oxidant pump installed at the main oxidant line; and a fuel pump installed at the main fuel line; characterized by an electric motor installed between the oxidant pump and the fuel pump and uniaxially driving the oxidant pump and the fuel pump; a cooling line branched from a side of the main oxidant line to guide a part of the oxidant to the electric motor, or branched from a side of the main fuel line to guide a part of the fuel to the electric motor; and a cooling part connected to the cooling line so as to allow fluid flow therebetween and installed at the electric motor; wherein at least one of the oxidant and the fuel is transferred to the cooling line to cool the electric motor.
A polymer, obtainable by radical polymerization of compounds of general formula I, in which R 1, R 2, and R 3 represent, independently of one another, H or an alkyl group having 1 to 3 C atoms, or by the radical copolymerization of said compounds with α,β-monoethylenically unsaturated carboxylic acids, carboxylic acid esters, carboxylic acid anhydrides, carboxylic acid amides, carboxylic acid imides, nitriles, and mixtures thereof.
An anti-skid arrangement for a vehicle with tires, wherein the anti-skid arrangement comprises a friction wheel having mounted thereon several chains intended to be thrown under a tire in order to increase friction between the tire and the ground, an operating arm rotatably connected to the friction wheel, wherein the operating arm is adapted to be connected to the vehicle and to bring the friction wheel into frictional engagement with the tire, and a protective member comprising an inner part arranged around a rotation axis of the friction wheel and between the friction wheel and the operating arm, characterized in that an extension of the inner part in a radial direction is less than 50% of a radius of the friction wheel, wherein the protective member comprises an outer part having a longitudinal extension radially away from the rotation axis, wherein a transverse extension of the outer part in a plane perpendicular to the rotation axis is substantially limited to a width of the operating arm parallel to said plane, and wherein the outer part further has two side walls substantially perpendicular to said plane and abutting against opposite sides of the operating arm.
A light emitting apparatus comprising: a radiation source for emitting short wavelength radiation with a first wavelength of less than 550 nm; an optic device disposed outside the radiation source, having an first portion adjacent to the radiation source, and an opposite end opposite to the first portion, wherein the optic device is configured to receive the short wavelength radiation emitted from the radiation source through the first portion and direct at least some of the short wavelength radiation to the opposite end, and has a light-transmitting portion provided in the first portion at a position aligned with the radiation source; a device disposed outside the optic device for directing at least some of the short wavelength radiation emitted from the radiation source into the optic device; and a down conversion material disposed at the opposite end and configured to receive and convert at least some of the short wavelength radiation with the first wavelength into emission radiation with a second wavelength longer than the first wavelength. a radiation source for emitting short wavelength radiation with a first wavelength of less than 550 nm; an optic device disposed outside the radiation source, having an first portion adjacent to the radiation source, and an opposite end opposite to the first portion, wherein the optic device is configured to receive the short wavelength radiation emitted from the radiation source through the first portion and direct at least some of the short wavelength radiation to the opposite end, and has a light-transmitting portion provided in the first portion at a position aligned with the radiation source; a device disposed outside the optic device for directing at least some of the short wavelength radiation emitted from the radiation source into the optic device; and a down conversion material disposed at the opposite end and configured to receive and convert at least some of the short wavelength radiation with the first wavelength into emission radiation with a second wavelength longer than the first wavelength.
A method to print a print job with a printing system, the printing system comprising a print head having a plurality of nozzles to deliver print agent, wherein the plurality of nozzles is configured to be independently controlled; the method comprising: comparing an operational parameter of the print job with a reference operational parameter, wherein the operational parameter of the print job comprises a length of the print job and/or a printing time of the print job; determining whether or not to perform a maintenance task during the print job based on at least a result of comparing the operational parameter with the reference operational parameter, wherein performing the maintenance task comprises a drop detection analysis; if the maintenance task is to be performed: determining a safety area on a printable medium, wherein the safety area is a non-printing area of the printable medium between printing areas; performing the maintenance task over the determined safety area. comparing an operational parameter of the print job with a reference operational parameter, wherein the operational parameter of the print job comprises a length of the print job and/or a printing time of the print job; determining whether or not to perform a maintenance task during the print job based on at least a result of comparing the operational parameter with the reference operational parameter, wherein performing the maintenance task comprises a drop detection analysis; if the maintenance task is to be performed: determining a safety area on a printable medium, wherein the safety area is a non-printing area of the printable medium between printing areas; performing the maintenance task over the determined safety area. determining a safety area on a printable medium, wherein the safety area is a non-printing area of the printable medium between printing areas; performing the maintenance task over the determined safety area.