mhurhangee/ep-ind-claims huggingface dataset:
A heating system for heating a building and/or for preparing hot water and for integration into a heating system network with a plurality of heating systems, the heating system comprising: • a heat distributing device; and • at least one computer, wherein the computer is coupled to the heat distributing device in such a way that the heat produced by the computer can be distributed in the building by means of the heat distributing device, • wherein the computer is configured in such a way that it produces a message for a computing load distribution computer distributing and coordinating computing tasks to the computers of the heating systems of the heating system network, wherein the message contains information about a heat demand of the heating system and/or the building, and • wherein the computer comprises a receiver that is configured to receive one or more messages from the computing load distribution computer, wherein the execution of calculations is requested in the one or more messages, and wherein the computer is configured in such a way that it carries out the calculations requested by means of the one or more received messages. • a heat distributing device; and • at least one computer, wherein the computer is coupled to the heat distributing device in such a way that the heat produced by the computer can be distributed in the building by means of the heat distributing device, • wherein the computer is configured in such a way that it produces a message for a computing load distribution computer distributing and coordinating computing tasks to the computers of the heating systems of the heating system network, wherein the message contains information about a heat demand of the heating system and/or the building, and • wherein the computer comprises a receiver that is configured to receive one or more messages from the computing load distribution computer, wherein the execution of calculations is requested in the one or more messages, and wherein the computer is configured in such a way that it carries out the calculations requested by means of the one or more received messages.
Apparatus for coating a substrate with a material in a chamber subject, during use, to substantial evacuation; which includes a coating station within said chamber for coating a substrate by evaporation at a first pressure; at least one treating station disposed in series with and segregated from said coating station and equipped with a plasma treater incorporating means for generating plasma in sufficient proximity to said substrate to treat said substrate, the plasma being at a second pressure, the second pressure being greater than the first pressure; the treating station comprising magnetic means for generating a magnetic field; and at least one cylindrical electrode (3, 4) surrounding said magnetic means, said plasma treater incorporating means (11, 12, 13, 14) for rotating said electrode (3, 4) about its longitudinal axis, thereby in operation causing plasma deposits on the electrode surface to be removed.
A charging method, applied to an electronic device, wherein the electronic device is connected to a first charging device, and the method comprises: identifing a type of the first charger; obtaining a maximum charging capability of the first charging device; determining a first charging parameter and a second charging parameter based on the maximum charging capability of the first charging device; automatically selecting the second charging parameter from charging parameters supported by the electronic device and the first charging device, based on the type of the first charger, the type of the electronic device and a current application scenario of the electronic device; performing charging based on the second charging parameter; displaying a first interface, wherein the first interface is used to display a first option and a second option, the first option is associated with the first charging parameter, and the second option is associated with the second charging parameter; detecting a first operation of a user in the first interface, wherein the first operation is used to select the first option from the first option and the second option; determining the first option in response to the first operation; obtaining the first charging parameter associated with the first option; and performing charging based on the first charging parameter. identifing a type of the first charger; obtaining a maximum charging capability of the first charging device; determining a first charging parameter and a second charging parameter based on the maximum charging capability of the first charging device; automatically selecting the second charging parameter from charging parameters supported by the electronic device and the first charging device, based on the type of the first charger, the type of the electronic device and a current application scenario of the electronic device; performing charging based on the second charging parameter; displaying a first interface, wherein the first interface is used to display a first option and a second option, the first option is associated with the first charging parameter, and the second option is associated with the second charging parameter; detecting a first operation of a user in the first interface, wherein the first operation is used to select the first option from the first option and the second option; determining the first option in response to the first operation; obtaining the first charging parameter associated with the first option; and performing charging based on the first charging parameter.
A method of connecting a wire to a feedthrough, the method comprising the steps of: providing a feedthrough comprising an insulator and an electrically conductive cermet pathway, wherein the cermet pathway comprises an electrically conductive metallic material, providing a wire made of an electrically conductive material, characterized in that an end of the wire is arranged in direct contact with the cermet pathway, and a joint microstructure is generated, the joint microstructure formed only of material of the cermet pathway and of material of the end of the wire. providing a feedthrough comprising an insulator and an electrically conductive cermet pathway, wherein the cermet pathway comprises an electrically conductive metallic material, providing a wire made of an electrically conductive material, characterized in that an end of the wire is arranged in direct contact with the cermet pathway, and a joint microstructure is generated, the joint microstructure formed only of material of the cermet pathway and of material of the end of the wire.
A personal care system, comprising: a personal care appliance having a body with at least one cavity the body configured to receive a cleaning tool at the second end and having at least one controller situated within the at least one cavity and which is configured to: determine whether a personal care mode is activated, obtain sensor information from at least one tooth-based sensor of a tooth portion, when it is determined that a personal care mode is activated, and transmit the sensor information to at least one of a remote server and a base portion. a personal care appliance having a body with at least one cavity the body configured to receive a cleaning tool at the second end and having at least one controller situated within the at least one cavity and which is configured to: determine whether a personal care mode is activated, obtain sensor information from at least one tooth-based sensor of a tooth portion, when it is determined that a personal care mode is activated, and transmit the sensor information to at least one of a remote server and a base portion. determine whether a personal care mode is activated, obtain sensor information from at least one tooth-based sensor of a tooth portion, when it is determined that a personal care mode is activated, and transmit the sensor information to at least one of a remote server and a base portion.
A valve for regulating a fluid, the valve including a valve housing with a central part and with two connection ends, the connection ends extending away from the central part, thus indicating a flow direction for the fluid, wherein internally of the central part there is arranged a valve body including an at least partially spherical surface for contact against a corresponding valve seat, the valve body including at least a shutoff part and a through-flow part, wherein the valve seat is arranged in the valve housing and resiliently bearing against the valve body, the valve seat includes a resilient structural part where the spring action from the resilient structural part acts in a direction which is substantially in parallel with the flow direction of the valve, and where the resilient structural part includes at least one annular flange part adapted for direct or indirect bearing on the valve body, where the resilient valve seat or seats include a fixing member (10, 11, 13) for mechanical fixing of the valve seat in a valve housing by plastic deformation of the valve housing and/or by plastic deformation of the fixing member (10, 11,13), and where the valve seat further includes a tubular flange part with internal cross-sectional area, the tubular flange part extending away from the valve body and towards a connection end, where the internal cross-sectional area substantially corresponds to the internal cross-sectional area of a through-going opening in the valve housing, characterised in that, the fixing member (10, 11, 13) is in the form of an annular flange part that is conical in a direction which is substantially in parallel with the flow direction, the annular conical flange part, including an external edge adapted for fixing of the valve seat in the valve housing, the edge constituting a barb for engaging the internal surface of the valve housing as the external diameter of the flange part is greater than the internal diameter of the valve housing at the area in which the valve seat is placed.
An inertial drive actuator (100, 200, 300, 400, 500, 600) comprising: a shift unit that generates a small shift in a first direction and in a second direction opposite to the first direction; a vibration base plate (4, 40, 42) that moves to and fro with the small shift of the shift unit; a mover disposed on a flat surface of the vibration base plate and having a first magnetic field generating unit; a first yoke; and a second yoke disposed on a side of the vibration base plate facing away from the mover or formed by a part of the vibration plate, wherein a frictional force acting between the mover and the vibration base plate is controlled by controlling a magnetic field generated by the first magnetic field generating unit to drive the mover; characterised in that the first yoke, in cross-section, comprises a member having a recess or an L-shape and a T-shaped member, which cover at least a part of the first magnetic field generating unit, and is disposed in order to guide a magnetic flux generated by the first magnetic field generating unit within the cross-section by means of the first yoke in such a way that the magnetic flux generated by the first magnetic field generating unit concentrates on a surface of the mover facing the vibration base plate with respect to both S and N poles. a shift unit that generates a small shift in a first direction and in a second direction opposite to the first direction; a vibration base plate (4, 40, 42) that moves to and fro with the small shift of the shift unit; a mover disposed on a flat surface of the vibration base plate and having a first magnetic field generating unit; a first yoke; and
A method for processing at least one data packet received by a receiving entity from a machine (M4, GW2) after transmission via at least one data transmission network, said method comprising: - obtaining identification data of a device involved in the transmission of said data packet, - identification of a decoding function associated with said obtained identification data, said decoding function being an inverse function of an encoding function applied by said device to a packet before transmission, - decoding the receive packet through the application of said identified decoding function; the device involved in the transmission being disposed between the machine (M4, GW2) and the receiving entity. - obtaining identification data of a device involved in the transmission of said data packet, - identification of a decoding function associated with said obtained identification data, said decoding function being an inverse function of an encoding function applied by said device to a packet before transmission, - decoding the receive packet through the application of said identified decoding function;
A portable apparatus comprising: a first housing made of metal sheets; a second housing being mounted with and fixed to the first housing, whereby an inside device storage space is provided therebetween; and a resin part having at least its external surface coated with resin and being fixed to the second housing at a position adjacent to the first housing, wherein: the first housing has multi-level hook parts at a side edge thereof facing the resin part; each of the multi-level hook parts have rear parts and front parts, wherein the rear parts extend from the first housing to the inside device storage space, and each of the front parts extend from the rear part to the resin part; and the resin part has hole parts at a side edge thereof facing the first housing; each of the hole parts have a hole on a portion protruded from a side surface of the resin part, each of the rear parts are inserted into the holes, and the front parts are locked on lower surfaces of peripheral edges of the hole parts enclosing the holes. a first housing made of metal sheets; a second housing being mounted with and fixed to the first housing, whereby an inside device storage space is provided therebetween; and a resin part having at least its external surface coated with resin and being fixed to the second housing at a position adjacent to the first housing, wherein: the first housing has multi-level hook parts at a side edge thereof facing the resin part; each of the multi-level hook parts have rear parts and front parts, wherein the rear parts extend from the first housing to the inside device storage space, and each of the front parts extend from the rear part to the resin part; and the resin part has hole parts at a side edge thereof facing the first housing; each of the hole parts have a hole on a portion protruded from a side surface of the resin part, each of the rear parts are inserted into the holes, and the front parts are locked on lower surfaces of peripheral edges of the hole parts enclosing the holes. the first housing has multi-level hook parts at a side edge thereof facing the resin part; each of the multi-level hook parts have rear parts and front parts, wherein the rear parts extend from the first housing to the inside device storage space, and each of the front parts extend from the rear part to the resin part; and the resin part has hole parts at a side edge thereof facing the first housing; each of the hole parts have a hole on a portion protruded from a side surface of the resin part, each of the rear parts are inserted into the holes, and the front parts are locked on lower surfaces of peripheral edges of the hole parts enclosing the holes.
A composition comprising a plurality of peptide fragments comprising a first polypeptide consisting of the sequence from amino acids 43-53 to amino acids 96-121 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained, a second peptide consisting of the sequence from amino acids 96-121 to amino acids 111-147 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained, a third peptide consisting of the sequence from amino acids 111-147 to amino acid 168-180 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained, a fourth peptide consisting of the sequence from amino acid 168-190 to amino acids 220-251 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained, a fifth peptide consisting of the sequence from amino acids 190-241 to amino acids 251-269 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained, a sixth peptide consisting of the sequence from amino acids 241-269 to amino acids 309-329 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained and a seventh peptide consisting of the sequence from amino acids 309-329 to amino acids 384-396 of SEQ ID NO: 12 wherein the reactivity of said peptide to IgE antibodies of subjects who are allergic to ragweed pollen is eliminated while the reactivity with the T lymphocytes from subjects who are allergic to ragweed pollen is retained
A pellicle for EUV exposure lithography, comprising (i) a pellicle frame having an upper end face and provided with a vent hole for air pressure adjustment, said vent hole being covered with a filter for stopping particles from entering said vent hole, and (ii) a pellicle membrane having a thickness of 1 μ m or smaller, made of single crystal silicon, polycrystalline silicon, or amorphous silicon, and tensely adhered to said upper end face of said pellicle frame; wherein said pellicle is characterised in that said filter is made of a metal or a ceramic, that said filter is integrally adhered to the pellicle frame either by welding or by soldering, in the case of which latter a solder alloy used has a melting point lower than those of said pellicle frame and said filter, and that the said filter has a filtration accuracy in a range of 0.1 through 0.3 μ m, which means that in a test wherein a filter size is 36 mm in diameter and an air flow rate is 2.95 L/min./cm 2 and particles having a grain size of 0.1 through 0.3 μ m are passed through the filter, then an initial removal efficiency of the filter tested is 88 % or greater.
A composite material (100, 350, 550) comprising: an interconnected network comprising a material that is thermally conductive and electrically insulative, wherein the material comprises a multilayer hexagonal boron nitride; and a polymer comprising a polyimide, wherein the interconnected network is about 0.3 vol% or less of the composite material (100, 350, 550). an interconnected network comprising a material that is thermally conductive and electrically insulative, wherein the material comprises a multilayer hexagonal boron nitride; and a polymer comprising a polyimide, wherein the interconnected network is about 0.3 vol% or less of the composite material (100, 350, 550).
A composite profile for a window or a door, including - a plastic basic profile, - an outer add-on metal profile, and - an inner add-on metal profile wherein - the add-on metal profiles (5, 6) and the plastic basic profile each comprise means (11, 12, 15, 16) which together form a latching function, so that the add-on metal profiles (5, 6) and the plastic basic profile are connectable to one another by the latching function, and - the plastic basic profile consists of multiple plastic part profiles (3, 4), characterized in that - the plastic part profiles (3, 4) are in one piece, - each of the plastic part profiles (3, 4) is connected both to the outer add-on metal profile and also to the inner add-on metal profile, and - the plastic part profiles (3, 4) are firmly connected to one another by means of the latching functions via the inner and outer add-on metal profiles (5, 6). - a plastic basic profile, - an outer add-on metal profile, and - an inner add-on metal profile wherein - the add-on metal profiles (5, 6) and the plastic basic profile each comprise means (11, 12, 15, 16) which together form a latching function, so that the add-on metal profiles (5, 6) and the plastic basic profile are connectable to one another by the latching function, and - the plastic basic profile consists of multiple plastic part profiles (3, 4), characterized in that - the plastic part profiles (3, 4) are in one piece, - each of the plastic part profiles (3, 4) is connected both to the outer add-on metal profile and also to the inner add-on metal profile, and - the plastic part profiles (3, 4) are firmly connected to one another by means of the latching functions via the inner and outer add-on metal profiles (5, 6).
A method of producing electrical power for delivery on an electrical power supply grid comprising: providing at least one combined heat and power plant generating heat(7,8) and electrical power (9,10) from biomass, fossil fuel, nuclear fuel or combinations thereof, characterized in providing a fuel producing plant for generating carbon and/or nitrogen-based fuels using electrical power from said at least one combined heat and power plant and a combination of carbon dioxide and hydrogen and/or carbonaceous gasses and/or carbonaceous liquids and/or nitrogen, determining the need for electrical power on said electrical power supply grid and delivering said needed electrical power on said grid, and delivering any excess electrical power to said fuel producing plant. providing at least one combined heat and power plant generating heat(7,8) and electrical power (9,10) from biomass, fossil fuel, nuclear fuel or combinations thereof, characterized in providing a fuel producing plant for generating carbon and/or nitrogen-based fuels using electrical power from said at least one combined heat and power plant and a combination of carbon dioxide and hydrogen and/or carbonaceous gasses and/or carbonaceous liquids and/or nitrogen, determining the need for electrical power on said electrical power supply grid and delivering said needed electrical power on said grid, and delivering any excess electrical power to said fuel producing plant.
A compound represented by the following formula: wherein R represents a linear or branched alkyl group containing 1 to 30 carbon atoms, a linear or branched alkenyl group containing 2 to 30 carbon atoms, or a linear or branched alkynyl group containing 2 to 30 carbon atoms, and these groups may optionally comprise a cycloalkane ring or an aromatic ring; and M represents a hydrogen atom or a counter cation.