mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a coloured β-nucleated polypropylene composition having a high content of β-modification, wherein polypropylene is melt blended with at least one inorganic pigment and at least one β-nucleating agent, characterised in that a1) polypropylene is melt blended with at least one inorganic pigment or with a first concentrate comprising the at least one inorganic pigment to obtain a coloured polypropylene and a2) the coloured polypropylene is melt blended with at least one β-nucleating agent or with a second concentrate comprising the at least one β-nucleating agent to obtain the coloured β-nucleated polypropylene composition or b1) polypropylene is melt blended with at least one β-nucleating agent or with a second concentrate comprising the at least one β-nucleating agent to obtain a β-nucleated polypropylene and b2) the β-nucleated polypropylene is melt blended with at least one inorganic pigment or with a first concentrate comprising the at least one inorganic pigment to obtain the coloured β-nucleated polypropylene composition, wherein the inorganic pigment is selected from the group consisting of Colour Index (C.I.) Chemical Formula CAS Registry Number Designation C.I. pigment green 17 Cr 2 O 3 CAS No. 68909-79-5 C.I. pigment green 26 CoCr 2 O 4 CAS No. 68187-49-5 C.I. pigment green 50 (Co,Ni,Zn) 2 TiO 4 CAS No. 68186-85-6 a1) polypropylene is melt blended with at least one inorganic pigment or with a first concentrate comprising the at least one inorganic pigment to obtain a coloured polypropylene and a2) the coloured polypropylene is melt blended with at least one β-nucleating agent or with a second concentrate comprising the at least one β-nucleating agent to obtain the coloured β-nucleated polypropylene composition or b1) polypropylene is melt blended with at least one β-nucleating agent or with a second concentrate comprising the at least one β-nucleating agent to obtain a β-nucleated polypropylene and b2) the β-nucleated polypropylene is melt blended with at least one inorganic pigment or with a first concentrate comprising the at least one inorganic pigment to obtain the coloured β-nucleated polypropylene composition,
A magnetic refrigeration material of a composition represented by the formula: La 1-f RE f (Fe 1-a-b-c-d-e Si a Co b X c Y d Z e) 13, wherein RE stands for at least one element selected from the group consisting of rare earth elements including Sc and Y and excluding La, X stands for Ga, or Ga and Al, Y stands for at least one element selected from the group consisting of Ge, Sn, B, and C, Z stands for at least one element selected from the group consisting of Ti, V, Cr, Mn, Ni, Cu, Zn, and Zr, a satisfies 0.03 ≤ a ≤ 0.17, b satisfies 0.003 ≤ b ≤ 0.06, c satisfies 0.02 ≤ c ≤ 0.10, d satisfies 0 ≤ d ≤ 0.04, e satisfies 0 ≤ e ≤ 0.04, and f satisfies 0 ≤ f ≤ 0.50, wherein said magnetic refrigeration material has an average crystal grain size of not smaller than 0.01 μm and not larger than 3 μm, a Curie temperature of not lower than 250 K, and a maximum (-ΔS max) of magnetic entropy change (-ΔS M) of said material when subjected to a field change up to 2 Tesla is not less than 5 J/kgK.
A method of configuring an inlet for a flight vehicle engine, the method comprising: configuring streamline-traced inlet walls of the inlet, the streamline-traced inlet walls defining an interior space within the streamline-traced inlet walls; configuring a streamline-traced internal diverter within the inlet, for removing, from the inlet, boundary layer flow along one of the streamline-traced inlet walls; and forming the inlet walls to have one or more slots through which flow captured by the streamline-traced internal diverter is directed, out of the inlet; wherein the streamline-traced inlet walls are configured using an inlet-creating shape along streamlines of a flow field; and wherein the streamline-traced internal diverter is configured using a diverter-creating shape along streamlines of the flow field used for the inlet-creating shape. configuring streamline-traced inlet walls of the inlet, the streamline-traced inlet walls defining an interior space within the streamline-traced inlet walls; configuring a streamline-traced internal diverter within the inlet, for removing, from the inlet, boundary layer flow along one of the streamline-traced inlet walls; and forming the inlet walls to have one or more slots through which flow captured by the streamline-traced internal diverter is directed, out of the inlet; wherein the streamline-traced inlet walls are configured using an inlet-creating shape along streamlines of a flow field; and wherein the streamline-traced internal diverter is configured using a diverter-creating shape along streamlines of the flow field used for the inlet-creating shape.
A process for preparing oligomers by continuous oligomerization of butenes, wherein a) a feed stream comprising 1-butene and 2-butene in a total concentration of from 10 to 70% by weight and from 10 to 60% by weight of isobutane is used (hereinafter referred to as feed stream 1), b) this feed stream 1 is reacted until more than 60% by weight of the 1-butene comprised in the feed stream 1 but less than 50% by weight of the 2-butene comprised in feed stream 1 have been converted into oligomers, c) the oligomers obtained in b) are separated off and optionally passed to a further work-up and the remaining residual stream is fed to work-up by distillation, d) isobutane is separated off by distillation from the residual stream, e) the isobutane-depleted stream obtained after the work-up by distillation d) (hereinafter referred to as feed stream 2) is reacted to form oligomers. a) a feed stream comprising 1-butene and 2-butene in a total concentration of from 10 to 70% by weight and from 10 to 60% by weight of isobutane is used (hereinafter referred to as feed stream 1), b) this feed stream 1 is reacted until more than 60% by weight of the 1-butene comprised in the feed stream 1 but less than 50% by weight of the 2-butene comprised in feed stream 1 have been converted into oligomers, c) the oligomers obtained in b) are separated off and optionally passed to a further work-up and the remaining residual stream is fed to work-up by distillation, d) isobutane is separated off by distillation from the residual stream, e) the isobutane-depleted stream obtained after the work-up by distillation d) (hereinafter referred to as feed stream 2) is reacted to form oligomers.
A processing method for multiple Intent services, comprising: receiving, by a browser, Intent data transmitted by an Intent client, and receiving Intent service identifiers of more than one Intent service that can process the Intent data; successively making, by the browser, according to an execution sequence of the Intent services which is determined through the received Intent service identifiers, all the Intent services corresponding to the received Intent service identifiers process the Intent data returned by the previous Intent service in the execution sequence, and transmitting by the browser, to a next Intent service, or to all selected Intent services and the Intent client, Intent data returned by a current Intent service until the last Intent service ends processing; and returning, by the browser, a processing result of the last Intent service to the Intent client. receiving, by a browser, Intent data transmitted by an Intent client, and receiving Intent service identifiers of more than one Intent service that can process the Intent data; successively making, by the browser, according to an execution sequence of the Intent services which is determined through the received Intent service identifiers, all the Intent services corresponding to the received Intent service identifiers process the Intent data returned by the previous Intent service in the execution sequence, and transmitting by the browser, to a next Intent service, or to all selected Intent services and the Intent client, Intent data returned by a current Intent service until the last Intent service ends processing; and returning, by the browser, a processing result of the last Intent service to the Intent client.
A method of processing a query on a graph data set stored on a plurality of nodes, the method including the steps of: dividing the query into one or more atoms which define individual queries on the graph data set; calculating the execution cost of each atom in the query; determining one or more query paths which set out an order in which one or more atoms are to be executed using said calculated execution costs and interdependence between said atoms; determining a query execution plan which is a set of said query paths which can be executed in parallel; executing said atoms on each of said nodes in accordance with said query execution plan; and combining the results of each query path to produce a result set that is the answer to said query (S370, S380). dividing the query into one or more atoms which define individual queries on the graph data set; calculating the execution cost of each atom in the query; determining one or more query paths which set out an order in which one or more atoms are to be executed using said calculated execution costs and interdependence between said atoms; determining a query execution plan which is a set of said query paths which can be executed in parallel; executing said atoms on each of said nodes in accordance with said query execution plan; and combining the results of each query path to produce a result set that is the answer to said query (S370, S380).
A tissue basesheet comprising: a blend of conventional papermaking fibers and microalgae; and an ionic retention aid; said tissue product comprising between about 1 and about 50 percent based on total weight of the tissue product of the microalgae; characterised in further comprising a flocculating agent. a blend of conventional papermaking fibers and microalgae; and an ionic retention aid; said tissue product comprising between about 1 and about 50 percent based on total weight of the tissue product of the microalgae; characterised in further comprising a flocculating agent.
A method, using an external device, for controlling a digital device which has a display that is turned off, both the digital device and the external device including a communication module for data communication, the method characterized by comprising: pairing the digital device to the external device; configuring, by the digital device, a virtual page for controlling the digital device through the paired external device, wherein the virtual page includes audio data for all applications or one or more applications among all applications of the digital device, a number of the one or more applications and the one or more applications being determined by at least one of a preset application list, use patterns, a priority of each application, a relationship of a unique function or attribute of the corresponding digital device or a current status of the digital device; receiving a first input signal from the external device; outputting, by the digital device, audio data corresponding to the configured virtual page to the external device in response to the first input signal; receiving a second input signal selecting an application from the external device based on the outputted data; executing, by the digital device, the selected application in response to the second input signal; and outputting resultant data in accordance with the execution, wherein the display is continuously turned off during executing the function or application. pairing the digital device to the external device; configuring, by the digital device, a virtual page for controlling the digital device through the paired external device, wherein the virtual page includes audio data for all applications or one or more applications among all applications of the digital device, a number of the one or more applications and the one or more applications being determined by at least one of a preset application list, use patterns, a priority of each application, a relationship of a unique function or attribute of the corresponding digital device or a current status of the digital device; receiving a first input signal from the external device; outputting, by the digital device, audio data corresponding to the configured virtual page to the external device in response to the first input signal; receiving a second input signal selecting an application from the external device based on the outputted data; executing, by the digital device, the selected application in response to the second input signal; and outputting resultant data in accordance with the execution, wherein the display is continuously turned off during executing the function or application.
A dampening valve unit, for use in a liquid distribution system having a centrally located liquid source connected via at least one feeding conduit to at least one liquid tap unit, wherein the at least one feeding conduit is evacuated of liquid after the associated liquid tap unit is closed and refilled with liquid after the liquid tap unit is opened, the dampening valve unit comprising a dampening chamber, which is connectable in use to the at least one feeding conduit, and a liquid stop valve unit, which is also connectable in use, at an inlet end thereof, to said associated feeding conduit and which has an outlet end being connectable in use to the at least one associated liquid tap unit, said dampening chamber is adapted to collect gas and is connectable to said associated feeding conduit via a passage of the dampening valve unit, wherein the passage is directly connected, without any restrictions therebetween, also to a liquid stop valve (2, 18) at said inlet end of said liquid stop valve unit, and the passage is positioned between said associated feeding conduit and both said inlet end of said liquid stop valve unit and said dampening chamber, respectively, a characterised in that the passage is always open to the dampening chamber for fluid connection between the passage and the dampening chamber.
A display system for a lavatory of an aircraft, wherein the display system is configured to resemble a window of the aircraft, the display system comprising: a bezel configured to be disposed about a boundary of a cutout in a wall of the lavatory; a fixture configured to be mounted to the wall of the lavatory, wherein the wall of the lavatory is curved to match the curvature of a body of the aircraft; and an electronic display mounted in the fixture, such that the electronic display is visible from within the lavatory through the bezel, wherein the electronic display is flat and wherein the fixture is ring-shaped and has variable thickness such that a top edge and a bottom edge of the fixture are thicker than a middle section of the fixture so as to be configured to accommodate curvature of the wall of the lavatory. a bezel configured to be disposed about a boundary of a cutout in a wall of the lavatory; a fixture configured to be mounted to the wall of the lavatory, wherein the wall of the lavatory is curved to match the curvature of a body of the aircraft; and an electronic display mounted in the fixture, such that the electronic display is visible from within the lavatory through the bezel, wherein the electronic display is flat and wherein the fixture is ring-shaped and has variable thickness such that a top edge and a bottom edge of the fixture are thicker than a middle section of the fixture so as to be configured to accommodate curvature of the wall of the lavatory.
A bar-shaped mold used to produce a simulated blood vessel, comprising first and second molded members (16, 17) in which inner spaces penetrating in an axial direction are formed respectively and characterized in that an axial member is detachably attached to the molded members (16, 17) by being inserted into the inner spaces, wherein the axial member has a length greater than the total length of the first and second molded members (16, 17), wherein the first and second molded members (16, 17) are each provided with a narrowed tapered front part, the axial member is attached with front ends of the tapered front parts confronting each other to form a concave and the respective molded members (16, 17) are configured to be separated when the axial member is removed, further comprising screws insertable into screw holes of the first and second molded members (16, 17) for pressing the axial member and blocking the movement and rotation of the first and second molded members (16, 17) with respect to the axial member.
Prosthesis or exoskeleton component for a prosthesis or an exoskeleton having at least one shock absorber device having at least one damper device that can be controlled by at least one control device, wherein at least one identification device with at least one sensor unit is provided which comprises at least one receiving unit for non-contact capturing of at least one signal that is influenced by at least one hazard, and that the identification device is suitable and configured to identify a hazard in dependence on the captured signal and to control at least one damper device in dependence on the identified hazard so that at least one damping characteristic of the damper device can be adjusted by a signal from the identification device, characterised in that the sensor unit comprises at least one transmitting unit for emitting at least one signal and wherein the receiving unit is suitable and configured to capture as a signal at least one reflection of the emitted signal starting from the hazard.
A computer-based jet noise source modeling method of creating a jet noise source model, comprising: setting a plurality of point sound sources for quantizing a strength distribution of a jet noise source determined through a steady Reynolds-averaged Navier Stokes (RANS) analysis of a jet stream by dividing the jet stream into sections along an axis of the jet stream, the plurality of point sound sources being set at respective points of the sections; determining respective sound source strengths of respective point sound sources; determining respective phases of the respective point sound sources based on the respective sound source strengths taken at a plurality of observations points and a known noise level of a far free sound field related with the jet stream; creating a jet noise source model represented by the obtained sound source strengths and phases; and using the jet noise source model in the development of an aircraft. setting a plurality of point sound sources for quantizing a strength distribution of a jet noise source determined through a steady Reynolds-averaged Navier Stokes (RANS) analysis of a jet stream by dividing the jet stream into sections along an axis of the jet stream, the plurality of point sound sources being set at respective points of the sections; determining respective sound source strengths of respective point sound sources; determining respective phases of the respective point sound sources based on the respective sound source strengths taken at a plurality of observations points and a known noise level of a far free sound field related with the jet stream;
A sliding part formed by sintering a powder compact, which is fabricated by filling an iron-based raw powder and a copper-based raw powder into a filling portion of a forming mold, applying a vibration to the filling portion at an accelerating speed of 0.01 to 3G, and compacting the raw powders, wherein the copper-based raw powder is comprised of a copper-based flat raw powder having an average diameter smaller than that of the iron-based raw powder and an aspect ratio larger than that of the iron-based raw powder, and a copper-based small-sized raw powder having an average diameter smaller than that of the copper-based flat raw powder; due to the vibration, the copper-based flat raw powder segregates at an outer side within the filling portion, the copper-based small-sized raw powder intrudes into a gap formed between the iron-based raw powder and the copper-based flat raw powder and a gap formed between the copper-based flat raw powders, and the copper-based small-sized raw powder emerges at the outer side; and copper segregates on a surface of the sliding part and calcium fluoride is dispersed and distributed in a basis material. wherein the copper-based raw powder is comprised of a copper-based flat raw powder having an average diameter smaller than that of the iron-based raw powder and an aspect ratio larger than that of the iron-based raw powder, and a copper-based small-sized raw powder having an average diameter smaller than that of the copper-based flat raw powder; due to the vibration, the copper-based flat raw powder segregates at an outer side within the filling portion, the copper-based small-sized raw powder intrudes into a gap formed between the iron-based raw powder and the copper-based flat raw powder and a gap formed between the copper-based flat raw powders, and the copper-based small-sized raw powder emerges at the outer side; and copper segregates on a surface of the sliding part and calcium fluoride is dispersed and distributed in a basis material.
An integrated circuit, IC, die, comprising: a first subvolume including first electrical structures, wherein the first electrical structures include devices in a first portion of a device layer of the IC die, wherein electrical structures include power delivery structures, dynamic random access memory, DRAM, static random access memory, SRAM, camera sensors, and high yield, low density logic, wherein the first electrical structures provide a processing unit and include first conductive vias; a second subvolume including second electrical structures, wherein the second electrical structures include devices in a second portion of the device layer of the IC die, wherein the second electrical structures provide a memory device and include second conductive vias, and the first conductive vias have a material composition different than a material composition of the second conductive vias, wherein the devices in the first portion of the device layer of the IC die include tri-gate transistors having a first fin height, the devices in the second portion of the device layer of the IC die include tri-gate transistors having a second fin height, and the first fin height is different than the second fin height; and a third subvolume including electrical pathways between the first subvolume and the second subvolume; wherein the IC die has an area greater than 750 square millimeters. a first subvolume including first electrical structures, wherein the first electrical structures include devices in a first portion of a device layer of the IC die, wherein electrical structures include power delivery structures, dynamic random access memory, DRAM, static random access memory, SRAM, camera sensors, and high yield, low density logic, wherein the first electrical structures provide a processing unit and include first conductive vias; a second subvolume including second electrical structures, wherein the second electrical structures include devices in a second portion of the device layer of the IC die, wherein the second electrical structures provide a memory device and include second conductive vias, and the first conductive vias have a material composition different than a material composition of the second conductive vias, wherein the devices in the first portion of the device layer of the IC die include tri-gate transistors having a first fin height, the devices in the second portion of the device layer of the IC die include tri-gate transistors having a second fin height, and the first fin height is different than the second fin height; and a third subvolume including electrical pathways between the first subvolume and the second subvolume; wherein the IC die has an area greater than 750 square millimeters.