mhurhangee/ep-ind-claims huggingface dataset:
A method of modifying a blend of polycarbonate and acrylonitrile/butadiene/styrene copolymer comprising adding composite particles to the blend, wherein the composite particles comprise a partially crosslinked polyolefin core, wherein the crosslinked polyolefin core is formed by emulsion polymerization of one or more polyolefins comprising a mole ratio of hetero atoms to polymerized units of all monomers of 0.001:1 or lower, and copolymers of one or more alpha-olefin with one or more non-hydrocarbon vinyl monomer, in the presence of a crosslinking agent and a redox inhibitor, and wherein the crosslinked polyolefin core has a Tg of -15°C or lower,as measured according to the description, and a full or partial shell comprising polymerized units of one or more vinyl monomer. a partially crosslinked polyolefin core, wherein the crosslinked polyolefin core is formed by emulsion polymerization of one or more polyolefins comprising a mole ratio of hetero atoms to polymerized units of all monomers of 0.001:1 or lower, and copolymers of one or more alpha-olefin with one or more non-hydrocarbon vinyl monomer, in the presence of a crosslinking agent and a redox inhibitor, and wherein the crosslinked polyolefin core has a Tg of -15°C or lower,as measured according to the description, and a full or partial shell comprising polymerized units of one or more vinyl monomer.
Device for measuring the electric power delivered to a railway vehicle by a high voltage electric supply line, comprising: resistive voltage divider means connected operationally between said supply line and an electric earthing terminal (22; 32c), and processing means connected to the output (26a, 26b) of said voltage divider means and designed to generate signals or data indicating the voltage of said supply line, wherein said resistive voltage divider means comprise a plurality of voltage dividers (23a, 23b) connected operationally to said supply line and forming separate respective connection paths to said electrical earthing terminal (22; 32c), wherein said processing means comprise a plurality of separate processing modules (41a, 42a, 43a; 41b, 42b, 43b) each one coupled to a respective one of said connection paths and designed to generate respective signals or data indicating the voltage of said supply line, characterized in that said voltage divider means are arranged in a cavity inside a line insulator and the terminal (30a; 30b) with the lowest potential of each voltage divider (23a; 23b) is arranged at a predetermined distance from a body made of electrically conductive material, arranged at a lower end of said insulator and outside the cavity of said insulator, which body is adapted to be operatively connected to earth and in which body there are arranged said processing means, such as to form therewith respective separate dischargers (40a; 40b) capable of generating an electric discharge when the voltage across at least one of said dischargers (40a; 40b) exceeds a predetermined value. resistive voltage divider means connected operationally between said supply line and an electric earthing terminal (22; 32c), and processing means connected to the output (26a, 26b) of said voltage divider means and designed to generate signals or data indicating the voltage of said supply line, wherein said resistive voltage divider means comprise a plurality of voltage dividers (23a, 23b) connected operationally to said supply line and forming separate respective connection paths to said electrical earthing terminal (22; 32c), wherein said processing means comprise a plurality of separate processing modules (41a, 42a, 43a; 41b, 42b, 43b) each one coupled to a respective one of said connection paths and designed to generate respective signals or data indicating the voltage of said supply line, characterized in that said voltage divider means are arranged in a cavity inside a line insulator and the terminal (30a; 30b) with the lowest potential of each voltage divider (23a; 23b) is arranged at a predetermined distance from a body made of electrically conductive material, arranged at a lower end of said insulator and outside the cavity of said insulator, which body is adapted to be operatively connected to earth and in which body there are arranged said processing means, such as to form therewith respective separate dischargers (40a; 40b) capable of generating an electric discharge when the voltage across at least one of said dischargers (40a; 40b) exceeds a predetermined value.
A composition for use in a method for treating a glioblastoma in a human or animal subject comprising of: administering to human or animal subject that is in need of treatment of a glioblastoma, wherein the human or animal is no longer responsive to at least one of chemotherapy, surgery, or radiation therapy, a therapeutically effective amount of the composition comprising: an amount of curcumin and empty liposomes or an amount of curcuminoids and empty liposomes that is effective for treating the glioblastoma, wherein the empty liposomes eliminate the QT prolongation caused by the curcumin or curcuminoids; and at least one chemotherapeutic agent that is synergistic with curcumin to treat the glioblastoma, wherein the composition increases ceramide or phosphorylcholine production of the glioblastoma cell. administering to human or animal subject that is in need of treatment of a glioblastoma, wherein the human or animal is no longer responsive to at least one of chemotherapy, surgery, or radiation therapy, a therapeutically effective amount of the composition comprising: an amount of curcumin and empty liposomes or an amount of curcuminoids and empty liposomes that is effective for treating the glioblastoma, wherein the empty liposomes eliminate the QT prolongation caused by the curcumin or curcuminoids; and at least one chemotherapeutic agent that is synergistic with curcumin to treat the glioblastoma, wherein the composition increases ceramide or phosphorylcholine production of the glioblastoma cell.
Turbomachine component (10, 16) comprising a base component and an additional part, each of which with an outer wall (11, 12) encloses an inner cavity, and which abut one another in the region of the outer wall (11, 12) with mutually corresponding connecting faces (15, 17) in a connecting region, and which are substance-bonded to one another at the connecting faces (15, 17), wherein at least one wall-like intermediate piece is provided in each of the base component and in the additional part and extends from the outer wall (11, 12) into the inner cavity, wherein the wall-like intermediate pieces of both parts (10, 16) are oriented to one another and abut one another in the connecting region, characterised in that a cutout with a transitional contour (20; 20a-f) deviating from a straight line is arranged on at least one transition between the intermediate piece and the outer wall (11, 12) for dissipation of mechanical and/or thermal stresses there; wherein the stress-dissipating transitional contour (20; 20a-f) is configured set back relative to the connecting faces (15, 17) of the base component or additional part.
. A three-dimensional printing method, comprising: applying a metallic build material; selectively applying a binder fluid on at least a portion of the metallic build material, the binder fluid including a liquid vehicle and polymer particles dispersed in the liquid vehicle; wherein the polymer particles comprise a low T g hydrophobic component(s), core or particles and a high T g hydrophilic component(s), shell or particles, wherein high T g refers to a glass transition temperature higher than 25 °C and wherein low T g refers to a glass transition temperature lower than 25 °C; repeating the applying of the metallic build material and the selectively applying of the binder fluid to create a patterned green part; heating the patterned green part to about a melting point of the polymer particles, thereby activating the binder fluid and creating a cured green part; heating the cured green part to a thermal decomposition temperature of the polymer particles, thereby creating an at least substantially polymer-free gray part; and heating the at least substantially polymer-free gray part to a sintering temperature to form a metallic part. applying a metallic build material; selectively applying a binder fluid on at least a portion of the metallic build material, the binder fluid including a liquid vehicle and polymer particles dispersed in the liquid vehicle; wherein the polymer particles comprise a low T g hydrophobic component(s), core or particles and a high T g hydrophilic component(s), shell or particles, wherein high T g refers to a glass transition temperature higher than 25 °C and wherein low T g refers to a glass transition temperature lower than 25 °C; repeating the applying of the metallic build material and the selectively applying of the binder fluid to create a patterned green part; heating the patterned green part to about a melting point of the polymer particles, thereby activating the binder fluid and creating a cured green part; heating the cured green part to a thermal decomposition temperature of the polymer particles, thereby creating an at least substantially polymer-free gray part; and heating the at least substantially polymer-free gray part to a sintering temperature to form a metallic part.
Method for the regenerative operation of a drive control facility having an inverter comprising semiconductor switches (T1-T6) which can be controlled by means of control signals, wherein a control logic determines a control signal time instant for each control signal and wherein the control of a semiconductor switch (T1-T6) takes place in each instance by means of a control signal generated by the control logic at the respective control signal time instant, characterised in that, the control of individual semiconductor switches (T1-T6) takes place by means of a corresponding control signal about a predetermined or predeterminable pre-ignition angle prior to the determined control signal time instant.
Solar energy condenser system comprising one or more solar energy collectors where each collector in turn comprises • a collection module formed by a hermetic and watertight enclosure, containing inside the elements of an optical system consisting of a liquid lens with a cylindrical surface and of an absorption system consisting of an absorption chamber through whose interior absorber tubes run, • a sturdy, load-bearing structure on which the collection module is mounted and which is equipped with dual-axis solar tracking systems, wherein - the absorption chamber has an absorption window with an inverted pyramidal trunk shape, where the absorption chamber has an external perimeter insulation, while inside it is lined with material or a reflective metallic sheet, - the absorption window is equipped with a glass plate of pyrex or quartz type, to prevent dirt from entering into the interior of the absorption chamber, - means (14, 15) are placed inside the absorption chamber for diverting solar energy towards the absorber tubes and avoid thermal emittance from elements housed within the absorption chamber. • a collection module formed by a hermetic and watertight enclosure, containing inside the elements of an optical system consisting of a liquid lens with a cylindrical surface and of an absorption system consisting of an absorption chamber through whose interior absorber tubes run, • a sturdy, load-bearing structure on which the collection module is mounted and which is equipped with dual-axis solar tracking systems, wherein - the absorption chamber has an absorption window with an inverted pyramidal trunk shape, where the absorption chamber has an external perimeter insulation, while inside it is lined with material or a reflective metallic sheet, - the absorption window is equipped with a glass plate of pyrex or quartz type, to prevent dirt from entering into the interior of the absorption chamber, - means (14, 15) are placed inside the absorption chamber for diverting solar energy towards the absorber tubes and avoid thermal emittance from elements housed within the absorption chamber. - the absorption chamber has an absorption window with an inverted pyramidal trunk shape, where the absorption chamber has an external perimeter insulation, while inside it is lined with material or a reflective metallic sheet, - the absorption window is equipped with a glass plate of pyrex or quartz type, to prevent dirt from entering into the interior of the absorption chamber, - means (14, 15) are placed inside the absorption chamber for diverting solar energy towards the absorber tubes and avoid thermal emittance from elements housed within the absorption chamber.
A procedure for decorating ceramic materials produced with inorganic polymers characterised in that it comprises a forming stage of the ceramic piece, a preparation stage of the decorative coating, a heat treatment stage, wherein the ceramic material is fired, and a local radiation stage carried out during the heat treatment stage coinciding with when the piece passes through the part of the kiln with the highest temperature, whereupon an increase in surface temperature occurs, thus firing the decorative coating; the heat treatment stage and local radiation stage are carried out in a mixed ceramic kiln, wherein the local radiation comprises electromagnetic radiation, wherein the heat treatment stage is carried out at temperatures of between 600 °C and 800 °C and wherein the radiation stage is carried out by generating a surface temperature on the piece of between 1050 °C and 1200 °C. a forming stage of the ceramic piece, a preparation stage of the decorative coating, a heat treatment stage, wherein the ceramic material is fired, and a local radiation stage carried out during the heat treatment stage coinciding with when the piece passes through the part of the kiln with the highest temperature, whereupon an increase in surface temperature occurs, thus firing the decorative coating; the heat treatment stage and local radiation stage are carried out in a mixed ceramic kiln, wherein the local radiation comprises electromagnetic radiation, wherein the heat treatment stage is carried out at temperatures of between 600 °C and 800 °C and wherein the radiation stage is carried out by generating a surface temperature on the piece of between 1050 °C and 1200 °C.
A method implemented in a wireless device for communicating real time data communication requirements to a network entity for applications running on the wireless device, the method comprising: identifying a change in a data communication requirement for an application running on an application layer of a communication reference model of the wireless device; wherein the change in the data requirement include at least one of starting the application, pausing the application, stopping the application, and any changes to the application that result in a change in data requirements above a threshold amount; providing to a lower layer of the communication reference model, the lower layer being lower than the application layer, a data profile, the data profile representing the change in the data requirements for the application running on the application layer of the wireless device, wherein the lower layer of the communication reference model is a media access control, MAC, layer of an Open System Communication interconnection, OSI, communication reference model; creating an aggregate data profile, the aggregate data profile representing additional data profiles and the data profile, each of the additional data profiles representing changes in data requirements for corresponding applications running on the application layer of the wireless device, wherein creating the aggregate data profile occurs at said MAC layer; and transmitting, to a network entity at a first predetermined time interval, an aggregate data profile message based on the aggregate data profile. identifying a change in a data communication requirement for an application running on an application layer of a communication reference model of the wireless device; wherein the change in the data requirement include at least one of starting the application, pausing the application, stopping the application, and any changes to the application that result in a change in data requirements above a threshold amount; providing to a lower layer of the communication reference model, the lower layer being lower than the application layer, a data profile, the data profile representing the change in the data requirements for the application running on the application layer of the wireless device, wherein the lower layer of the communication reference model is a media access control, MAC, layer of an Open System Communication interconnection, OSI, communication reference model; creating an aggregate data profile, the aggregate data profile representing additional data profiles and the data profile, each of the additional data profiles representing changes in data requirements for corresponding applications running on the application layer of the wireless device, wherein creating the aggregate data profile occurs at said MAC layer; and transmitting, to a network entity at a first predetermined time interval, an aggregate data profile message based on the aggregate data profile.
A controller for an agent (A i) of a group of agents (A n), the controller comprising: - a temporal deep network designed to calculate a desired trajectory for the agent (A i); the controller for the agent (A i) further comprising: - a nonlinear model predictive controller designed to calculate commands for the agent (A i) based on the desired trajectory and desired trajectories of the other agents (A n) of the group of agents (A n); and - an augmented memory designed to integrate historic system states of the group of agents (A n) for the temporal deep network, wherein the nonlinear model predictive controller is configured to take into account a collision avoidance constraint for each agent (A n), and wherein the controller for the agent (A i) is configured to share the desired trajectory of the agent (A i) and observations of the agent (A i) with the other agents (A n) of the group of agents (A n), and wherein the temporal deep network is designed to calculate a desired trajectory for the agent (A i) based on historic observations of the agent (A i), a reference trajectory for the agent (A i), and historic states of all agents (A n), and wherein the historic states are used to train the temporal deep network of the agent (A i). - a temporal deep network designed to calculate a desired trajectory for the agent (A i); the controller for the agent (A i) further comprising: - a nonlinear model predictive controller designed to calculate commands for the agent (A i) based on the desired trajectory and desired trajectories of the other agents (A n) of the group of agents (A n); and - an augmented memory designed to integrate historic system states of the group of agents (A n) for the temporal deep network, - a nonlinear model predictive controller designed to calculate commands for the agent (A i) based on the desired trajectory and desired trajectories of the other agents (A n) of the group of agents (A n); and - an augmented memory designed to integrate historic system states of the group of agents (A n) for the temporal deep network, wherein the nonlinear model predictive controller is configured to take into account a collision avoidance constraint for each agent (A n), and wherein the controller for the agent (A i) is configured to share the desired trajectory of the agent (A i) and observations of the agent (A i) with the other agents (A n) of the group of agents (A n), and is configured to share the desired trajectory of the agent (A i) and observations of the agent (A i) with the other agents (A n) of the group of agents (A n), and wherein the temporal deep network is designed to calculate a desired trajectory for the agent (A i) based on historic observations of the agent (A i), a reference trajectory for the agent (A i), and historic states of all agents (A n), and wherein the historic states are used to train the temporal deep network of the agent (A i).
A method of forming a layer containing an organic compound, said method comprising the steps of: installing a container in which a material containing the organic compound has been filled to an installation chamber; vacuum-exhausting the installation chamber; heating the container to a temperature T in the installation chamber; carrying the heated container to an evaporation holder previously heated to the temperature T; transporting a substrate into a deposition chamber; carrying out vapor deposition to the substrate by making a degree of vacuum in the deposition chamber higher than that in the installation chamber while maintaining the container to the temperature T; and carrying the substrate. installing a container in which a material containing the organic compound has been filled to an installation chamber; vacuum-exhausting the installation chamber; heating the container to a temperature T in the installation chamber; carrying the heated container to an evaporation holder previously heated to the temperature T; transporting a substrate into a deposition chamber; carrying out vapor deposition to the substrate by making a degree of vacuum in the deposition chamber higher than that in the installation chamber while maintaining the container to the temperature T; and carrying the substrate.
A positive active material for a secondary lithium battery, comprising: a lithium metal composite oxide core represented by the following Chemical Formula 1; and a coating layer positioned on the lithium metal composite oxide core and comprising a fluorine compound: [Chemical Formula 1] Li w Ni x Co y Mn 1-x-y-z M z O 2 characterised in that, in the above Chemical Formula 1, 1.3≤w≤1.5, 0<x<1, 0≤y<1, 0.5≤1-x-y-z, and M is at least one metal selected from the group consisting of Al, Mg, Fe, Cu, Zn, Cr, Ag, Ca, Na, K, In, Ga, Ge, V, Mo, Nb, Si, Ti, and Zr. a lithium metal composite oxide core represented by the following Chemical Formula 1; and a coating layer positioned on the lithium metal composite oxide core and comprising a fluorine compound: [Chemical Formula 1] Li w Ni x Co y Mn 1-x-y-z M z O 2 characterised in that, in the above Chemical Formula 1, 1.3≤w≤1.5, 0<x<1, 0≤y<1, 0.5≤1-x-y-z, and M is at least one metal selected from the group consisting of Al, Mg, Fe, Cu, Zn, Cr, Ag, Ca, Na, K, In, Ga, Ge, V, Mo, Nb, Si, Ti, and Zr.