mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for controlling and/or monitoring a chemical production plant, wherein the chemical production plant comprises at least one process chain comprising at least one batch process, the method comprising the following steps: a) at least one step of determining of input data, wherein the input data comprises at least one quality criterion and production plant layout data, wherein the step comprises retrieving the production plant layout data and receiving information relating to the quality criterion via at least one communication interface; b) at least one prediction step, wherein in the prediction step operating conditions for operating the chemical production plant are determined by applying at least one trained model on the input data, wherein the trained model is at least partially data-driven by being trained on sensor data from historical production runs, wherein the historical production runs comprise quality criteria of produced products associated with data from one or more of process control, physical reactor design, plant layout and sensor data of production runs; c) at least one control and/or monitoring step, wherein the operating conditions are provided, characterized in that the trained model is configured for providing operating conditions relating to a best route through the processing chain for achieving the quality criterion. a) at least one step of determining of input data, wherein the input data comprises at least one quality criterion and production plant layout data, wherein the step comprises retrieving the production plant layout data and receiving information relating to the quality criterion via at least one communication interface; b) at least one prediction step, wherein in the prediction step operating conditions for operating the chemical production plant are determined by applying at least one trained model on the input data, wherein the trained model is at least partially data-driven by being trained on sensor data from historical production runs, wherein the historical production runs comprise quality criteria of produced products associated with data from one or more of process control, physical reactor design, plant layout and sensor data of production runs; c) at least one control and/or monitoring step, wherein the operating conditions are provided,
A pneumatic tire (2; 82), comprising: on a side surface where the tire maximum width point is located, a plurality of dimples (62; 84, 88; 96) aligned along a plurality of circumferential rows set to be concentric with respect to the tire axis; lateral ribs (66; 86) positioned between radially adjacent dimples (62; 84, 88; 96); and longitudinal ribs positioned between circumferentially adjacent dimples (62; 84, 88; 96), wherein the lateral ribs (66; 86) each have a radially outer side surface (661o, 662o; 863o, 861o) and a radially inner side surface (661i, 662i; 863i, 861i), the lateral ribs (66; 86) include a first lateral rib (661; 861) and a second lateral rib (662; 862), at the first lateral rib (661; 861), the height from the dimple bottom to the upper edge of the first lateral rib at the radially inner side surface (661i; 861i) is set the same as the height from the dimple bottom to the upper edge of the first lateral rib at the radially outer side surface (661o; 861o), wherein, the second lateral rib (662; 862) is positioned radially inward from the tire maximum width point, characterized in that at the second lateral rib (662; 862), the height from the dimple bottom to the upper edge of the second lateral rib at the radially inner side surface (662i; 862i) is set greater than the height from the dimple bottom to the upper edge of the second lateral rib at the radially outer side surface (662ο; 862ο). on a side surface where the tire maximum width point is located, a plurality of dimples (62; 84, 88; 96) aligned along a plurality of circumferential rows set to be concentric with respect to the tire axis; lateral ribs (66; 86) positioned between radially adjacent dimples (62; 84, 88; 96); and longitudinal ribs positioned between circumferentially adjacent dimples (62; 84, 88; 96), wherein the lateral ribs (66; 86) each have a radially outer side surface (661o, 662o; 863o, 861o) and a radially inner side surface (661i, 662i; 863i, 861i), the lateral ribs (66; 86) include a first lateral rib (661; 861) and a second lateral rib (662; 862), at the first lateral rib (661; 861), the height from the dimple bottom to the upper edge of the first lateral rib at the radially inner side surface (661i; 861i) is set the same as the height from the dimple bottom to the upper edge of the first lateral rib at the radially outer side surface (661o; 861o), wherein, the second lateral rib (662; 862) is positioned radially inward from the tire maximum width point, characterized in that at the second lateral rib (662; 862), the height from the dimple bottom to the upper edge of the second lateral rib at the radially inner side surface (662i; 862i) is set greater than the height from the dimple bottom to the upper edge of the second lateral rib at the radially outer side surface (662ο; 862ο).
A lead-free insulation composition for electric cable comprising: (a) a base polymer comprising 20% to 99% by weight of a metallocene polymer and 1% to 80% by weight of a non-metallocene polymer; (b) a filler; and (c) at least one mercapto compound; wherein the lead-free insulation composition contains no more than 500 ppm by weight of lead. (a) a base polymer comprising 20% to 99% by weight of a metallocene polymer and 1% to 80% by weight of a non-metallocene polymer; (b) a filler; and (c) at least one mercapto compound;
A bend stiffener for locally protecting an elongate flexible member from excessive curvature, the bend stiffener comprising an elongate stiffener body which comprises polymer material and which has a root end and a free end, a passage extending through the stiffener body from the root end to the free end for receiving and embracing the flexible member and a coupling at or toward the root end of the stiffener body for mounting the stiffener body in cantilever fashion, the stiffener body being sufficiently flexible to curve somewhat along with the flexible member when the flexible member suffers a bending load but sufficiently stiff to resist excessive curvature which could otherwise damage the flexible member, and being sufficiently resilient to recover its original shape upon relief of the bending load, the stiffener body comprising at least two stiffener body parts (64a, 64b) which together define the passage and which are able to be separated from one another to enable the flexible member to be introduced to the passage, and subsequently assembled to one another around the flexible member to ready the bend stiffener for use, each of the stiffener body parts (64a, 64b) being provided with a respective interface member (68, 70, 168a,b) which is embedded in its associated stiffener body part and comprises material which is stiffer than the polymer of the stiffener body, each of the stiffener body parts (64a, 64b) having first and second contact faces (72, 74), each contact face of one stiffener body part abutting a contact face of another stiffener body part in the assembled bend stiffener, characterised in that each of the interface members (68, 70, 168a,b) extends from one contact face of its stiffener body part to the other contact face of the same stiffener body part, and has first and second end faces (78, 79), securing arrangements (80, 83) are provided for securing an end face of the interface member (68, 70, 168a,b) of one body part to the end face of the interface member (68, 70, 168a,b) of another body part, the said end faces (78, 79) being in abutment, to secure the stiffener body parts (64a, 64b) to one another. an elongate stiffener body which comprises polymer material and which has a root end and a free end, a passage extending through the stiffener body from the root end to the free end for receiving and embracing the flexible member and a coupling at or toward the root end of the stiffener body for mounting the stiffener body in cantilever fashion,
A shielded electric wire connecting structure, comprising: a lower case that has a lower terminal base and houses a rotary electric machine; an upper case that has an upper terminal base and houses an inverter (32, 33), the upper case being disposed directly above the lower case so as to be opposed to the lower case; a plurality of electric wires whose one ends are connected to the lower terminal base directly below the upper case while the other ends are connected to the upper terminal base at an end portion on a surface side of a wall of the upper case, the plurality of electric wires being placed in a state of being bent from a position directly below the upper case to a position opposed to the wall, and a braided shield component that is disposed on one side of the plurality of electric wires, and placed to shield the plurality of electric wires only on an opposite side of the plurality of electric wires from a face thereof opposed to the upper case, characterized in that a lower bracket formed of an electrically conductive material is joined to one end portion of the braided shield component, an upper bracket formed of an electrically conductive material is joined to the other end portion of the braided shield component, a lower fastening metal fixture of a lower connector joined to the plurality of electric wires is fastened to the lower bracket, an upper metal plate of an upper connector joined to the plurality of electric wires is joined to the upper bracket, the upper metal plate is fastened to the upper case, and the lower bracket is fastened to the lower case. a lower case that has a lower terminal base and houses a rotary electric machine; an upper case that has an upper terminal base and houses an inverter (32, 33), the upper case being disposed directly above the lower case so as to be opposed to the lower case; a plurality of electric wires whose one ends are connected to the lower terminal base directly below the upper case while the other ends are connected to the upper terminal base at an end portion on a surface side of a wall of the upper case, the plurality of electric wires being placed in a state of being bent from a position directly below the upper case to a position opposed to the wall, and a braided shield component that is disposed on one side of the plurality of electric wires, and placed to shield the plurality of electric wires only on an opposite side of the plurality of electric wires from a face thereof opposed to the upper case, characterized in that a lower bracket formed of an electrically conductive material is joined to one end portion of the braided shield component, an upper bracket formed of an electrically conductive material is joined to the other end portion of the braided shield component, a lower fastening metal fixture of a lower connector joined to the plurality of electric wires is fastened to the lower bracket, an upper metal plate of an upper connector joined to the plurality of electric wires is joined to the upper bracket, the upper metal plate is fastened to the upper case, and the lower bracket is fastened to the lower case.
A method for synthesizing a terminal olefin, the method comprising: contacting, in the presence of a ruthenium alkylidene metathesis catalyst, an olefinic substrate comprised of at least one internal olefin with a cross metathesis partner comprised of an alpha olefin, under reaction conditions effective to allow cross-metathesis to occur, wherein the reaction conditions include a reaction temperature of at least 35°C; wherein the internal olefins are selected from the group consisting of monoglycerides, diglycerides, triglycerides, and combinations thereof; and the alpha olefin is selected from the group consisting of mono-substituted olefins and di-substituted olefins and further wherein the contacting occurs in the presence of 0.1 ppm to 100 ppm of the catalyst relative to the amount of olefinic substrate.
A method for grant-free transmission, comprising: obtaining, by a user equipment, a user equipment identifier and a key that are allocated by a core network device and that are used for grant-free transmission; encrypting and encapsulating, by the user equipment, data by using the key and the user equipment identifier; and transmitting, by the user equipment, the encrypted and encapsulated data to an access network device on a first contention transmission unit, CTU, resource in a grant-free transmission mode. obtaining, by a user equipment, a user equipment identifier and a key that are allocated by a core network device and that are used for grant-free transmission; encrypting and encapsulating, by the user equipment, data by using the key and the user equipment identifier; and transmitting, by the user equipment, the encrypted and encapsulated data to an access network device on a first contention transmission unit, CTU, resource in a grant-free transmission mode.
Valve for use in conjunction with an application device, comprising: a) a valve housing; b) a valve spindle, which bears a sealing element at a first free end outside the valve housing and is mounted between a closing position and a releasing position within the valve housing in a sliding fashion; wherein c) the valve spindle comprises at least a first piston element and a second piston element; d) the valve housing borders at least a first piston space and a second piston space; e) the first piston element is guided in the first piston space and the second piston element is guided in the second piston space; f) a pressure fluid may be supplied in each case to the first piston space and to the second piston space in such a manner that a force acting in the same direction is exerted on the first piston element and on the second piston element, and wherein g) the first and the second piston space (20, 22) are connected by radial channels (82, 84) to an outer circumferential groove of the valve housing. a) a valve housing; b) a valve spindle, which bears a sealing element at a first free end outside the valve housing and is mounted between a closing position and a releasing position within the valve housing in a sliding fashion; c) the valve spindle comprises at least a first piston element and a second piston element; d) the valve housing borders at least a first piston space and a second piston space; e) the first piston element is guided in the first piston space and the second piston element is guided in the second piston space; f) a pressure fluid may be supplied in each case to the first piston space and to the second piston space in such a manner that a force acting in the same direction is exerted on the first piston element and on the second piston element, and wherein g) the first and the second piston space (20, 22) are connected by radial channels (82, 84) to an outer circumferential groove of the valve housing.
In-situ, i.e., on-site preparation method of a dental and orthopedic acrylic material with antimicrobial properties, wherein the material comprises a polymethyl methacrylate,PMMA, matrix with diffused or embedded copper nanoparticles, CuNPs, as sole active ingredient, wherein said nanoparticles have all their external dimensions between 40 and 100 nm as measured by scanning electron microscopy and the CuNPs concentration in said material is between 0.015 wt.% and 0.068 wt.%; wherein said preparation comprises the steps of: a) adding 100 μL of an aqueous solution of copper acetate [Cu(CH 3 COO) 2] of concentration 0.1 to 0.8 M to 2 mL of 95 % absolute ethanol; b) adding 2 mL of liquid methyl methacrylate monomer, MMA, to the ethanolic solution obtained in step (a) under constant agitation and at room temperature; c) constantly stirring the solution obtained at step (b) at a temperature of 50 to 70°C until reddish-colored CuNPs are formed; d) mixing the liquid MMA solution loaded with CuNPs obtained in step (c) with an amount of PMMA at a ratio acrylic/monomer of 3:2 w/v in order to produce a polymerization reaction; and e) placing the mixture obtained in step (d) in polytetrafluoroethylene or dental muffle molds to complete the self- or thermo-curing process. a) adding 100 μL of an aqueous solution of copper acetate [Cu(CH 3 COO) 2] of concentration 0.1 to 0.8 M to 2 mL of 95 % absolute ethanol; b) adding 2 mL of liquid methyl methacrylate monomer, MMA, to the ethanolic solution obtained in step (a) under constant agitation and at room temperature; c) constantly stirring the solution obtained at step (b) at a temperature of 50 to 70°C until reddish-colored CuNPs are formed; d) mixing the liquid MMA solution loaded with CuNPs obtained in step (c) with an amount of PMMA at a ratio acrylic/monomer of 3:2 w/v in order to produce a polymerization reaction; and e) placing the mixture obtained in step (d) in polytetrafluoroethylene or dental muffle molds to complete the self- or thermo-curing process.
A system comprising: a beverage dispensing system comprising a control architecture internal to the beverage dispensing system and an internal portion internal to the beverage dispensing system, the internal portion being configured to provide an internal ingredient under the control of the control architecture from the internal portion inside of the beverage dispensing system; and an external portion external to the beverage dispensing system, the external portion being configured to provide an external ingredient and an additional external ingredient to the beverage dispensing system, the external portion being under the control of the control architecture; wherein the internal ingredient and external ingredient comprise beverage bases or beverage base components; wherein the external portion comprises: a primary tray; an external ingredient container disposed on the primary tray for providing the external ingredient; a secondary tray stacked upon the primary tray; and an additional external ingredient container disposed on the secondary tray for providing the additional external ingredient; and wherein the secondary tray is electrically connected to the control architecture through the primary tray. a beverage dispensing system comprising a control architecture internal to the beverage dispensing system and an internal portion internal to the beverage dispensing system, the internal portion being configured to provide an internal ingredient under the control of the control architecture from the internal portion inside of the beverage dispensing system; and an external portion external to the beverage dispensing system, the external portion being configured to provide an external ingredient and an additional external ingredient to the beverage dispensing system, the external portion being under the control of the control architecture; wherein the internal ingredient and external ingredient comprise beverage bases or beverage base components; wherein the external portion comprises: a primary tray; an external ingredient container disposed on the primary tray for providing the external ingredient; a secondary tray stacked upon the primary tray; and an additional external ingredient container disposed on the secondary tray for providing the additional external ingredient; and a primary tray; an external ingredient container disposed on the primary tray for providing the external ingredient; a secondary tray stacked upon the primary tray; and an additional external ingredient container disposed on the secondary tray for providing the additional external ingredient; and wherein the secondary tray is electrically connected to the control architecture through the primary tray.
A lossy electrical-signal transmission line (22; 30; 50; 60) having first and second ends, the transmission line (22; 30; 50; 60) being configured such that: its characteristic impedance at the first end has a first value; and its characteristic impedance at the second end has a second value, characterised in that: the second value is lower than the first value; and the series resistance of the transmission line (22; 30; 50; 60) measured from its first end to its second end is substantially equal to the difference between said first and second values, in that the series resistance measured from the first end to the second end is within Q percent of the difference between said first and second values, where Q is 20 or 10 or 5 or 1. its characteristic impedance at the first end has a first value; and its characteristic impedance at the second end has a second value, characterised in that: the second value is lower than the first value; and the series resistance of the transmission line (22; 30; 50; 60) measured from its first end to its second end is substantially equal to the difference between said first and second values, in that the series resistance measured from the first end to the second end is within Q percent of the difference between said first and second values, where Q is 20 or 10 or 5 or 1. the second value is lower than the first value; and the series resistance of the transmission line (22; 30; 50; 60) measured from its first end to its second end is substantially equal to the difference between said first and second values, in that the series resistance measured from the first end to the second end is within Q percent of the difference between said first and second values, where Q is 20 or 10 or 5 or 1.
A steering apparatus comprising: a housing; a pinion shaft on an outer circumference of which pinion gear teeth are formed and which is provided with a joint connecting portion which transmits steering effort to the pinion shaft; a bearing which supports rotatably the pinion shaft on the housing; and a rack shaft having rack gear teeth which mesh with the pinion gear teeth, which rack shaft is adapted to reciprocate relative to the housing in response to rotation of the pinion shaft to thereby steer road wheels, wherein the pinion shaft comprises a bending facilitating portion, which is easiest to bend when the pinion shaft is bent by exerting an external force in a bending direction, which bending facilitating portion is provided in a location lying closer to an outer end portion side of the pinion shaft than the bearing; the steering apparatus further comprises: a circular cylindrical member which is engaged within a circumferential groove with which the pinion shaft is provided to fix the bearing which supports the pinion shaft, wherein the bending facilitating portion is provided between the circumferential groove and the joint connecting portion, characterized in that the bending facilitating portion is defined by a groove formed on the outer circumference of the pinion shaft. a housing; a pinion shaft on an outer circumference of which pinion gear teeth are formed and which is provided with a joint connecting portion which transmits steering effort to the pinion shaft; a bearing which supports rotatably the pinion shaft on the housing; and a rack shaft having rack gear teeth which mesh with the pinion gear teeth, which rack shaft is adapted to reciprocate relative to the housing in response to rotation of the pinion shaft to thereby steer road wheels, wherein the pinion shaft comprises a bending facilitating portion, which is easiest to bend when the pinion shaft is bent by exerting an external force in a bending direction, which bending facilitating portion is provided in a location lying closer to an outer end portion side of the pinion shaft than the bearing; the steering apparatus further comprises: a circular cylindrical member which is engaged within a circumferential groove with which the pinion shaft is provided to fix the bearing which supports the pinion shaft,