mhurhangee/patent-ind-claim-en huggingface dataset:
Quick-change system for a laboratory mixer, comprising a coupling unit with at least two rotatable coupling elements for two tools, wherein the first coupling element comprises a hydraulic clamping sleeve for clampably fastening a first connecting portion of a first tool, and the second coupling element has a form-locking connection device for fastening a second connecting portion of a second tool, wherein the axes of rotation of the two coupling elements are arranged concentrically and the second coupling element is arranged externally around the first coupling element .
Tensioning device , preferably for tensioning a belt, having a first positioning element which is arranged in a fixed manner and is composed of a first material, and having at least one eccentric unit , wherein the eccentric unit has a second positioning element which is composed of a second material, wherein the second positioning element is mounted so as to be pivotable about a pivot point, wherein the first positioning element and the second positioning element are configured for form-fitting retention of the eccentric unit on the first positioning element , wherein a deformable clamping element arranged between the first positioning element and the second positioning element comprises a third material with a lower hardness than the first material and the second material, wherein the first positioning element and the second positioning element have a corresponding profiling , characterized in that the negative of the profiling of the first positioning element and the negative of the profiling of the second positioning element are able to be formed in the deformable clamping element . wherein the eccentric unit has a second positioning element which is composed of a second material, wherein the second positioning element is mounted so as to be pivotable about a pivot point, wherein the first positioning element and the second positioning element are configured for form-fitting retention of the eccentric unit on the first positioning element , wherein a deformable clamping element arranged between the first positioning element and the second positioning element comprises a third material with a lower hardness than the first material and the second material, wherein the first positioning element and the second positioning element have a corresponding profiling , characterized in that the negative of the profiling of the first positioning element and the negative of the profiling of the second positioning element are able to be formed in the deformable clamping element .
An adhesive resin composition comprising: a propylene polymer (A), an ethylene polymer (B), and a thermoplastic resin (C) comprising a copolymer containing not less than 60 mol% and not more than 99 mol% of structural units derived from 4-methyl-1-pentene, and not less than 1 mol% and not more than 40 mol% of structural units derived from a C2-C20 α-olefin other than 4-methyl-1-pentene, the structural units derived from 4-methyl-1-pentene and the structural units derived from a C2-C20 α-olefin other than 4-methyl-1-pentene representing in total 100 mol% of the copolymer, the thermoplastic resin (C) showing a melting point Tm of not more than 199°C or showing substantially no melting point as analyzed with a differential scanning calorimeter (DSC), the total of the components (A), (B) and (C) taken as 100 parts by mass including 45 to 75 parts by mass of the component (A), 5 to 20 parts by mass of the component (B), and 15 to 45 parts by mass of the component (C). a propylene polymer (A), an ethylene polymer (B), and a thermoplastic resin (C) comprising a copolymer containing not less than 60 mol% and not more than 99 mol% of structural units derived from 4-methyl-1-pentene, and not less than 1 mol% and not more than 40 mol% of structural units derived from a C2-C20 α-olefin other than 4-methyl-1-pentene, the structural units derived from 4-methyl-1-pentene and the structural units derived from a C2-C20 α-olefin other than 4-methyl-1-pentene representing in total 100 mol% of the copolymer, the thermoplastic resin (C) showing a melting point Tm of not more than 199°C or showing substantially no melting point as analyzed with a differential scanning calorimeter (DSC), the total of the components (A), (B) and (C) taken as 100 parts by mass including 45 to 75 parts by mass of the component (A), 5 to 20 parts by mass of the component (B), and 15 to 45 parts by mass of the component (C).
A coiled tubing injector comprising: at least two gripper chains , each with a plurality of grippers for gripping coiled tubing within a gripping zone between the chains; a traction system comprising a hydraulic traction pressure circuit for generating a gripping force applied to the at least two chains; a hydraulic timing circuit coupled with the at least two gripper chains, the hydraulic timing circuit adapted for detecting a difference in relative speeds of the at least two gripper chains is greater than a predetermined amount, characterised in that a hydraulic pressure signal is generated by the hydraulic timing circuit when the difference in relative speeds of the at least two gripper chains is greater than a predetermined amount, whereupon the hydraulic pressure signal actuates a valve to increase hydraulic pressure supplied to the hydraulic traction pressure circuit to increase the gripping force in response to the hydraulic pressure signal. at least two gripper chains , each with a plurality of grippers for gripping coiled tubing within a gripping zone between the chains; a traction system comprising a hydraulic traction pressure circuit for generating a gripping force applied to the at least two chains; a hydraulic timing circuit coupled with the at least two gripper chains, the hydraulic timing circuit adapted for detecting a difference in relative speeds of the at least two gripper chains is greater than a predetermined amount, characterised in that a hydraulic pressure signal is generated by the hydraulic timing circuit when the difference in relative speeds of the at least two gripper chains is greater than a predetermined amount, whereupon the hydraulic pressure signal actuates a valve to increase hydraulic pressure supplied to the hydraulic traction pressure circuit to increase the gripping force in response to the hydraulic pressure signal.
An ophthalmic device which is a polymerization product of a monomeric mixture comprising: (a) a major amount of one or more first non-silicone-containing hydrophilic monomers; (b) one or more hydrophobic monomers; and (c) a crosslinking agent mixture comprising (i) one or more di-, tri-or tetra(meth)acrylate-containing crosslinking agents, and (ii) one or more di-, tri-or tetracarbamate-containing crosslinking agents; wherein the ophthalmic device has an equilibrium water content measured as indicated in the description of at least 65 weight percent. (a) a major amount of one or more first non-silicone-containing hydrophilic monomers; (b) one or more hydrophobic monomers; and (c) a crosslinking agent mixture comprising (i) one or more di-, tri-or tetra(meth)acrylate-containing crosslinking agents, and (ii) one or more di-, tri-or tetracarbamate-containing crosslinking agents;
A process for mounting a printing plate having a first periphery on a carrier sheet having a second periphery that surrounds the first periphery, the process comprising the sequential steps of: a. including registration indicia on the printing plate ; b. placing the carrier sheet on a cutting table of a cutting system; c. mounting the printing plate to the carrier sheet ; d. detecting with the cutting system absolute coordinates of the registration indicia on the printing plate ; and e. cutting the carrier sheet along a cut line having absolute coordinates generated based upon the detected absolute coordinates of the printing plate registration indicia . a. including registration indicia on the printing plate ; b. placing the carrier sheet on a cutting table of a cutting system; c. mounting the printing plate to the carrier sheet ; d. detecting with the cutting system absolute coordinates of the registration indicia on the printing plate ; and e. cutting the carrier sheet along a cut line having absolute coordinates generated based upon the detected absolute coordinates of the printing plate registration indicia .
An airfoil array comprising: an endwall ; a first airfoil and a second airfoil each extending radially from the endwall and having a first side and an opposite second side extending along an axial chord between a leading edge and a trailing edge ; a first profiled region recessed into the endwall along the first side of the first airfoil ; a second profiled region protruding from the endwall approximately equidistant from the first side of the first airfoil and the second side of the second airfoil ; and a third profiled region recessed into the endwall adjacent the leading edge of the second side of the second airfoil , wherein the third profiled region is at least partially axially aligned with the second profiled region , characterised in that : the first profiled region extends approximately 100% of the axial chord . an endwall ; a first airfoil and a second airfoil each extending radially from the endwall and having a first side and an opposite second side extending along an axial chord between a leading edge and a trailing edge ; a first profiled region recessed into the endwall along the first side of the first airfoil ; a second profiled region protruding from the endwall approximately equidistant from the first side of the first airfoil and the second side of the second airfoil ; and a third profiled region recessed into the endwall adjacent the leading edge of the second side of the second airfoil , wherein the third profiled region is at least partially axially aligned with the second profiled region , characterised in that : the first profiled region extends approximately 100% of the axial chord .
A voltage generating device , comprising: a first switch , having a first terminal configured to receive a first voltage (Vc1), wherein a control terminal of the first switch is configured to receive a second voltage (Vc2); and a second switch , having a first terminal configured to receive the second voltage (Vc2), wherein a control terminal of the second switch is configured to receive the first voltage (Vc1), a second terminal of the second switch and a second terminal of the first switch are coupled to an output node (Nout2, Nout3, Nout4), and the output node (Nout2, Nout3, Nout4) outputs an output voltage (Vout2, Vout3, Vout4) related to at least one of the first voltage (Vc1) and the second voltage (Vc2). a first switch , having a first terminal configured to receive a first voltage (Vc1), wherein a control terminal of the first switch is configured to receive a second voltage (Vc2); and a second switch , having a first terminal configured to receive the second voltage (Vc2), wherein a control terminal of the second switch is configured to receive the first voltage (Vc1), a second terminal of the second switch and a second terminal of the first switch are coupled to an output node (Nout2, Nout3, Nout4), and the output node (Nout2, Nout3, Nout4) outputs an output voltage (Vout2, Vout3, Vout4) related to at least one of the first voltage (Vc1) and the second voltage (Vc2).
A greenhouse for plant cultivation, comprising a greenhouse framework assembled out of a framework material and a sheet outer surface member formed from a water-impermeable sheet and sheltered in a manner of covering the outer periphery of the greenhouse framework , wherein the greenhouse for plant cultivation comprises: a sheet inner surface member forming all of a floor surface , a wall surface , and a ceiling surface in a sealed state on the inner side of the sheet outer surface member in a manner of being spaced by intervals from the sheet outer surface member by using a flexibly bendable heat shield sheet formed by coating both sides of a sheet-shaped material with metal foil; and an air conditioning device for air conditioning the inner side of the sheet inner surface member .
A compound of Formula (I) for use in preventing or treating an infection or a disease caused by an infection, wherein the compound has the following structure:
Connection module adapted to provide a galvanically isolated connection of field devices to a control facility, comprising a primary side with primary connections (117, 118; 217, 218) for the connection to the control facility, a secondary side with secondary connections (129,..,132; 229,..,232) for the connection to the field device (134, 136, 148,..,152) and coupling means (103,..,109) adapted to operationally connect the primary side to the secondary side and to galvanically isolate the primary side from the secondary side , wherein electronic detecting and adjusting means are adapted to automatically detect properties and/or requirements, e.g. electrical signal properties and/or electrical signal requirements, of a control facility and a field device when the control facility is connected to the primary side and the field device is connected to the secondary side and both, the control facility and the field device, are operative to automatically adjust electrical parameters, e.g. electrical transfer characteristics, of the connection module to comply with detected properties and/or requirements of the control facility and the field device, characterized in that the electronic detecting and adjusting means comprise a primary current measurement device for measuring a primary current through a primary winding , that the electronic detecting and adjusting means comprise a first variable resistor which is connected in series to the primary connections and that the first variable resistor is adjusted in dependence of a primary current measured by the primary current measurement device .
A test strip pickup mechanism configured to pick up test strips for liquid sample analysis one by one from a test strip bottle, the test strip pickup mechanism comprising: a pickup head which is provided with a suction hole and is configured to suck and hold, via the suction hole , a test strip one by one from a test strip bottle ; characterized in that the test strip pickup mechanism further comprises: a hollow motor having a hollow portion therethrough and which comprises a shaft directly connected to the pickup head so that the hollow portion is connected to a cavity continued from the suction hole and which is configured to rotate the pickup head about an axis extending in a longitudinal direction of the pickup head to reverse a face of the test strip held by the pickup head .
A method for extruding molten resin in a charging space from a head by converting a rotational motion of an electric motor into a linear motion of a piston disposed in the charging space through a ball screw and thus causing the piston to move vertically, the charging space being a space into which the molten resin can be charged and formed in an accumulator, the head having an extrusion port at a lower end thereof, the method comprising: a step of separating an upper plate from a lower plate and retracting the upper plate upward by a rotational motion of the electric motor and then charging the molten resin into the charging space with a sufficient charging pressure to push up the piston against weights of the lower plate and the piston in the charging space, the lower plate being disposed over the accumulator and coupled to the piston from above, the upper plate being engaged with the electric motor and disposed over the lower plate so as to be able to surface-contact the lower plate; and a step of extruding the molten resin from the extrusion port by moving the upper plate downward with the upper plate and the lower plate surface-contacting each other by a rotational motion of the electric motor and thus moving the piston downward in the charging space. a step of separating an upper plate from a lower plate and retracting the upper plate upward by a rotational motion of the electric motor and then charging the molten resin into the charging space with a sufficient charging pressure to push up the piston against weights of the lower plate and the piston in the charging space, the lower plate being disposed over the accumulator and coupled to the piston from above, the upper plate being engaged with the electric motor and disposed over the lower plate so as to be able to surface-contact the lower plate; and a step of extruding the molten resin from the extrusion port by moving the upper plate downward with the upper plate and the lower plate surface-contacting each other by a rotational motion of the electric motor and thus moving the piston downward in the charging space.
A fabric antenna for telecommunications, the fabric antenna comprising a host yarn , which is substantially electrically non-conducting, and an antenna yarn , which is substantially electrically conducting, the host yarn and the antenna yarn being knitted together to form a fabric comprising a host fabric formed of the host yarn and an antenna grid formed of the antenna yarn, the antenna grid comprising a plurality of intersecting antenna tracks formed of the antenna yarn, the antenna tracks being separated by regions of the host fabric, the antenna tracks of the antenna grid being electrically coupled together at the regions where the antenna tracks intersect, wherein the host yarn and the antenna yarn are knitted together to form a single layer of fabric and wherein, the antenna grid comprises a plurality of grid sections , each grid section comprising a first and second side antenna track and a first and second end antenna track which separately extend between opposite ends of the first and second side antenna tracks to form a closed periphery of the grid section.
A method for producing a fibrous preform on a tool surface , comprising: (a) affixing a disposable layer onto the tool surface , said disposable layer comprising a radiation absorbing material, in particulate form, dispersed within the layer and particles of a polymeric or resinous binder on an exposed surface that is not in contact with the tool surface ; (b) placing a first ply of fibrous material on the disposable layer by automation; (c) using a radiation energy source to emit radiation toward the disposable layer before the first ply comes into contact with the disposable layer so as to heat the disposable layer, (d) pressing the first ply against the disposable layer with a compacting device ; (e) successively placing one or more additional plies of fibrous material onto the first ply by automation, and pressing each subsequent ply against the prior laid ply with the compacting device , wherein the fibrous material comprises more than 50% by weight of reinforcement fibers and is porous. (a) affixing a disposable layer onto the tool surface , said disposable layer comprising a radiation absorbing material, in particulate form, dispersed within the layer and particles of a polymeric or resinous binder on an exposed surface that is not in contact with the tool surface ; (b) placing a first ply of fibrous material on the disposable layer by automation; (c) using a radiation energy source to emit radiation toward the disposable layer before the first ply comes into contact with the disposable layer so as to heat the disposable layer, (d) pressing the first ply against the disposable layer with a compacting device ; (e) successively placing one or more additional plies of fibrous material onto the first ply by automation, and pressing each subsequent ply against the prior laid ply with the compacting device ,
A data transmission method, comprising: receiving , by a network device, data which is transmitted by a terminal device on multiple transmission resources without grant; and independently decoding , by the network device, the data on each transmission resource in the multiple transmission resources, wherein the each transmission resource comprises at least one resource unit, wherein decoding for the data on each transmission resource is mutually independent; wherein the at least one resource unit is continuous or discontinuous in a frequency domain; and the multiple transmission resources are discontinuous in a frequency domain; wherein the data on the each transmission resource in the multiple transmission resources belongs to an independent Hybrid Automatic Retransmission Request, HARQ, process, wherein the data on the each transmission resource comprises: information about a HARQ process number corresponding to data transmission on the each transmission resource and position information of other transmission resources, except a current transmission resource, in the multiple transmission resources. receiving , by a network device, data which is transmitted by a terminal device on multiple transmission resources without grant; and independently decoding , by the network device, the data on each transmission resource in the multiple transmission resources, wherein the each transmission resource comprises at least one resource unit, wherein decoding for the data on each transmission resource is mutually independent; wherein the at least one resource unit is continuous or discontinuous in a frequency domain; and the multiple transmission resources are discontinuous in a frequency domain; wherein the data on the each transmission resource in the multiple transmission resources belongs to an independent Hybrid Automatic Retransmission Request, HARQ, process, wherein the data on the each transmission resource comprises: information about a HARQ process number corresponding to data transmission on the each transmission resource and position information of other transmission resources, except a current transmission resource, in the multiple transmission resources.