mhurhangee/patent-ind-claim-en huggingface dataset:
Isolated driver module for electrically supplying lighting means , comprising - a galvanic isolation barrier , preferably a SELV isolation barrier, that galvanically isolates a primary side (PS) and a secondary side (SS) of the isolated driver module from each other, wherein the lighting means are electrically connectable to the secondary side (SS), - a control circuit , preferably a microcontroller, arranged on the secondary side (SS), - a status indication module with at least one indicator LED comprising a supply means wherein the status indication module is configured to be electrically supplied via the supply means , wherein the status indication module is arranged on the secondary side (SS), and - wherein a switching circuit is part of the status indication module , - a communication module , preferably a wireless communication module, - wherein the control circuit is configured to control the electrical supply of the at least one indicator LED via the supply means for controlling a visual indication of the status of the isolated driver module by the at least one indicator LED , characterized in that - the communication module is arranged on the primary side (PS), - the switching circuit is configured to switch a supply current (Is) for the at least one indicator LED , such that a modulated current (Is) is supplied via the supply means to the at least one indicator LED , in order to electromagnetically transmit information from the status indication module to the communication module . - a galvanic isolation barrier , preferably a SELV isolation barrier, that galvanically isolates a primary side (PS) and a secondary side (SS) of the isolated driver module from each other, wherein the lighting means are electrically connectable to the secondary side (SS), - a control circuit , preferably a microcontroller, arranged on the secondary side (SS), - a status indication module with at least one indicator LED comprising a supply means wherein the status indication module is configured to be electrically supplied via the supply means , wherein the status indication module is arranged on the secondary side (SS), and - wherein a switching circuit is part of the status indication module , - a communication module , preferably a wireless communication module, - wherein the control circuit is configured to control the electrical supply of the at least one indicator LED via the supply means for controlling a visual indication of the status of the isolated driver module by the at least one indicator LED , - the communication module is arranged on the primary side (PS), - the switching circuit is configured to switch a supply current (Is) for the at least one indicator LED , such that a modulated current (Is) is supplied via the supply means to the at least one indicator LED , in order to electromagnetically transmit information from the status indication module to the communication module .
A heading control system for an aircraft , the heading control system being arranged to maintain a heading of an aircraft by controlling a nose wheel angle of the aircraft, the heading control system comprising: an interface arranged to receive a bias signal indicating a bias towards the port or the starboard of the aircraft; and one or more processors arranged to: determine, based on the bias signal, an offset angle defining an offset from a longitudinal axis of the aircraft; and characterised in that the one or more processors are further arranged to perform a control process to control the nose wheel angle within an angular range centred on the offset angle. an interface arranged to receive a bias signal indicating a bias towards the port or the starboard of the aircraft; and one or more processors arranged to: determine, based on the bias signal, an offset angle defining an offset from a longitudinal axis of the aircraft; and characterised in that the one or more processors are further arranged to perform a control process to control the nose wheel angle within an angular range centred on the offset angle. determine, based on the bias signal, an offset angle defining an offset from a longitudinal axis of the aircraft; and characterised in that the one or more processors are further arranged to perform a control process to control the nose wheel angle within an angular range centred on the offset angle.
A support assembly for use in semiconductor processing comprising: an application substrate ; a heater layer disposed directly onto the application substrate by a layered process such that the heater layer is in direct contact with the application substrate ; an insulation layer disposed onto the heater layer ; and a second substrate disposed onto the insulation layer, wherein the application substrate defines a material having a relatively low coefficient of thermal expansion that is matched to a coefficient of thermal expansion of the heater layer ; the support assembly being characterized in that the heater layer comprises a dielectric layer and a resistive layer , the resistive layer being formed on the dielectric layer by one of layered processes selected from the group consisting of thermal spray, thick film, thin film, and sol-gel. an application substrate ; a heater layer disposed directly onto the application substrate by a layered process such that the heater layer is in direct contact with the application substrate ; an insulation layer disposed onto the heater layer ; and a second substrate disposed onto the insulation layer,
A value document comprising a value document substrate having a value document substrate check feature and an elongate security element , namely a security thread or a security strip, incorporated in the value document substrate, having a security element check feature , wherein the value document substrate check feature is formed by a watermark, by an opening in the value document substrate, by a feature obtainable by printing technology, or by a feature in the form of a hologram, and the security element check feature is formed by a metallic information, by an information in the form of a recess within a metallization, by a motif in the form of a hologram, by an electronic chip, by a magnetic feature, by a luminescent feature, by a feature obtainable by printing technology, by a photochromic or thermochromic feature, or by an optically variable feature, wherein the security element extends from one end of the value document substrate to another end of the value document substrate and is incorporated in the value document substrate such that the security element check feature is aligned with the value document substrate check feature , wherein the security element has exactly one long magnetic code which extends substantially over the entire length of the elongate security element incorporated in the value document substrate and the length of the magnetic code of the security element is at least 85% related to the length of the security element extending from the one end to the other end of the value document substrate , wherein the magnetic code of the elongate security element incorporated in the value document substrate is related to a further machine-readable feature of the value document and the magnetic code of the elongate security element incorporated in the value document substrate represents the first component and the further machine-readable feature of the value document represents the second component of a combined code formed by the first component and the second component.
A system comprising: a memory storing processor-executable process steps; a processing unit configured to execute the processor-executable process steps to: receive (S810) a request to create a virtual machine associated with a requested number of resource units of each of a plurality of resource types; determine (S820), for each of the plurality of resource types, a pool of available resource units of the system; determine (S830) worn resource units from each pool of available resource units based on utilization information associated with each resource unit, the utilization information comprising a number of computations; remove (S840) the worn resource units from each pool of available resource units; for each of the plurality of resource types, randomly select (S850) the requested number of resource units from the pool of available resource units of the resource type; and allocate (S860) the selected resource units of each of the plurality of resource types to the virtual machine. a memory storing processor-executable process steps; a processing unit configured to execute the processor-executable process steps to: receive (S810) a request to create a virtual machine associated with a requested number of resource units of each of a plurality of resource types; determine (S820), for each of the plurality of resource types, a pool of available resource units of the system; determine (S830) worn resource units from each pool of available resource units based on utilization information associated with each resource unit, the utilization information comprising a number of computations; remove (S840) the worn resource units from each pool of available resource units; for each of the plurality of resource types, randomly select (S850) the requested number of resource units from the pool of available resource units of the resource type; and allocate (S860) the selected resource units of each of the plurality of resource types to the virtual machine. receive (S810) a request to create a virtual machine associated with a requested number of resource units of each of a plurality of resource types; determine (S820), for each of the plurality of resource types, a pool of available resource units of the system; determine (S830) worn resource units from each pool of available resource units based on utilization information associated with each resource unit, the utilization information comprising a number of computations; remove (S840) the worn resource units from each pool of available resource units; for each of the plurality of resource types, randomly select (S850) the requested number of resource units from the pool of available resource units of the resource type; and allocate (S860) the selected resource units of each of the plurality of resource types to the virtual machine.
Method for operating a base station for a cleaning device , wherein the base station is configured to suck suction material from the cleaning device into a container of the base station during a suction process, and wherein the differential pressure with respect to the environment downstream of the container is determined by means of a pressure sensor of the base station in order to determine the filling level of the container , characterized in that the filling level of the container is determined exclusively by means of the differential pressure as a state of the base station and additionally as a further state of the base station , whether an outlet filter is not or not correctly inserted downstream of the pressure sensor and/or whether the cleaning device is not or not correctly connected to the base station , and/or that the maximum number of still possible suction processes without emptying the container is restricted when reaching a predefined filling level, wherein when the maximum number of suction processes with the container in the predefined filling level is reached, a new suction process is only performed by a user input. wherein the differential pressure with respect to the environment downstream of the container is determined by means of a pressure sensor of the base station in order to determine the filling level of the container , characterized in that the filling level of the container is determined exclusively by means of the differential pressure as a state of the base station and additionally as a further state of the base station , whether an outlet filter is not or not correctly inserted downstream of the pressure sensor and/or whether the cleaning device is not or not correctly connected to the base station , and/or that the maximum number of still possible suction processes without emptying the container is restricted when reaching a predefined filling level, wherein when the maximum number of suction processes with the container in the predefined filling level is reached, a new suction process is only performed by a user input.
A process for depolymerizing plastics, comprising the steps of: a) providing a plastic waste feedstock; b) mixing the plastic waste feedstock, which is substantially made of a polyolefin or a mixture of polyolefins, with a catalyst to obtain a reactant mixture; and c) heating the reactant mixture to a temperature ranging from 280°C to 600°C to obtain a depolymerization product; said process being characterized by the fact that the catalyst is selected from a silica based material having a porosity, measured according to the BET method, ranging from 0.2 to 1.0 cm 3 /g, a surface area ranging from 100 to 500 m 2 /g and an average pore radius ranging from 0.5 to 50 nm and being doped with a metal or metalloid selected from the groups selected from the group consisting of Ti, Sn, Bi and mixture thereof. a) providing a plastic waste feedstock; b) mixing the plastic waste feedstock, which is substantially made of a polyolefin or a mixture of polyolefins, with a catalyst to obtain a reactant mixture; and c) heating the reactant mixture to a temperature ranging from 280°C to 600°C to obtain a depolymerization product;
A device configured for securing an object to a ceiling, comprising: a threaded rod having a rod axis, a first end configured to receive a driver tool and a second end; a bracket having a first bracket portion configured to be secured to a side of the object and a second bracket portion engaging the second end of the threaded rod ; and a spring-loaded tab having a first tab portion that includes a stop surface and a threaded passage in engagement with the threaded rod , a second tab portion having an outer surface , and a spring mechanism in communication with the first and second tab portions , wherein the second tab portion is rotatable about an axis substantially perpendicular to the rod axis between a first angular position in which the outer surface is substantially parallel to the rod axis and a second angular position in which the second tab portion engages the stop surface of the first tab portion , wherein the spring-loaded tab includes a spring wire attached to the first and second tab portions , and wherein the spring wire is configured to urge the second tab portion from the first angular position toward the second angular position and the second tab portion may be urged from the second angular position toward the first angular position when in contact with a side of an opening in the ceiling, characterized in that a tab clamp and screws secure one end of the spring wire to the second tab portion while the opposite end is attached to the first tab portion . a threaded rod having a rod axis, a first end configured to receive a driver tool and a second end; a bracket having a first bracket portion configured to be secured to a side of the object and a second bracket portion engaging the second end of the threaded rod ; and a spring-loaded tab having a first tab portion that includes a stop surface and a threaded passage in engagement with the threaded rod , a second tab portion having an outer surface , and a spring mechanism in communication with the first and second tab portions , wherein the second tab portion is rotatable about an axis substantially perpendicular to the rod axis between a first angular position in which the outer surface is substantially parallel to the rod axis and a second angular position in which the second tab portion engages the stop surface of the first tab portion , wherein the spring-loaded tab includes a spring wire attached to the first and second tab portions , and wherein the spring wire is configured to urge the second tab portion from the first angular position toward the second angular position and the second tab portion may be urged from the second angular position toward the first angular position when in contact with a side of an opening in the ceiling, characterized in that a tab clamp and screws secure one end of the spring wire to the second tab portion while the opposite end is attached to the first tab portion .
A cooling device comprising - at least one compartment having at least a wall wherein foodstuffs desired to be cooled are placed, - at least one recess disposed on the wall - a knob that is situated on the recess that enables the compartment temperature to be changed by the user and having a light source for illuminating the compartment - wherein said compartment comprises at least one interaction means disposed on the back surface of the wall and characterized in that - the knob comprises at least one magnet so as to be in interaction with the interaction means to ensure that it is mounted on the wall . - at least one compartment having at least a wall wherein foodstuffs desired to be cooled are placed, - at least one recess disposed on the wall - a knob that is situated on the recess that enables the compartment temperature to be changed by the user and having a light source for illuminating the compartment - wherein said compartment comprises at least one interaction means disposed on the back surface of the wall and characterized in that - the knob comprises at least one magnet so as to be in interaction with the interaction means to ensure that it is mounted on the wall .
Heat pump comprising a compressor and an electronically commutated electric motor, which is connected to the compressor , for driving the compressor, wherein the heat pump has a power output stage which is connected to the electric motor and is designed to energize the electric motor, and the power output stage is thermally conductively connected to a section of a coolant circuit of the heat pump , so that waste heat which is generated by the power output stage can be given off to the coolant circuit , wherein the heat pump has at least one temperature sensor , wherein the temperature sensor is arranged to detect a temperature of the power output stage and to generate a temperature signal which represents the temperature, wherein the coolant circuit has a bypass fluid line and at least one valve of controllable design, wherein the bypass fluid line is designed and arranged to conduct a coolant flow past the section and the valve is designed to release or to block the coolant flow through the section depending on a control signal, and the heat pump has a control unit which is connected to the temperature sensor and is designed to generate the control signal depending on the temperature signal, characterized in that the heat pump has an ambient temperature sensor which is connected to the control unit and is designed to detect an ambient temperature and to generate an ambient temperature signal which represents the ambient temperature and the control unit is designed to generate the control signal in such a way that the temperature of the power output stage is greater than the ambient temperature.
A mould powder for coating the internal surface of casting moulds, comprising 10 - 99.5 % by weight of a ferrosilicon alloy, 3-50 % by weight of an iron sulphide, and optionally 1-30 % by weight of CaSi alloy, and/or 1-10 % by weight of CaF 2 . 10 - 99.5 % by weight of a ferrosilicon alloy, 3-50 % by weight of an iron sulphide, and optionally 1-30 % by weight of CaSi alloy, and/or 1-10 % by weight of CaF 2 .
A refrigerator comprising: a cabinet in which an upper storage space and a lower storage space are defined; a door part inserted and withdrawn to open and close the lower storage space; and a drawer part connected to the door part so as to be inserted into and withdrawn from the lower storage space, wherein the drawer part comprises at least a bottom surface and a side surface part vertically extending from each of both side ends of the bottom surface, characterized in that the refrigerator comprises: a support member which is provided in the drawer part and on which a food or container is seated; an elevation device disposed on each of both side surfaces of the drawer part and coupled to each of both side ends of the support member to vertically elevate the support member in a state in which a drawer door is withdrawn; a mounting part recessed inside both side surfaces of the drawer part so that elevation device is mounted inside the mounting part ; a side cover disposed on each of both sides of the support member configure to cover the mounting part . a support member which is provided in the drawer part and on which a food or container is seated; an elevation device disposed on each of both side surfaces of the drawer part and coupled to each of both side ends of the support member to vertically elevate the support member in a state in which a drawer door is withdrawn; a mounting part recessed inside both side surfaces of the drawer part so that elevation device is mounted inside the mounting part ; a side cover disposed on each of both sides of the support member configure to cover the mounting part .
A method for a first data compute node 'DCN' which executes at least one datapath implementing a logical network that spans a plurality of datacenters, the first DCN operating in a first datacenter as a first, standby, instance of a logical network gateway that processes data messages between other DCNs of the logical network and external entities, wherein the external entities address the logical network gateway using a first network address (E1) and the first DCN has an interface with a second network address (S2) for use in the first datacenter, the method comprising: storing a mapping between the second network address (S2) and a third network address (S1), wherein a second DCN operates in a second datacenter as a second, active, instance of the logical network gateway and has an interface with the third network address (S1) for use in the second datacenter; receiving connection state data from the second DCN describing connections between the external entities and the other DCNs of the logical network, the connection state data using the third network address (S1); replacing the third network address (S1) with the second network address (S2) in the connection state data using the stored mapping ; and storing the connection state data with the replaced network address . storing a mapping between the second network address (S2) and a third network address (S1), wherein a second DCN operates in a second datacenter as a second, active, instance of the logical network gateway and has an interface with the third network address (S1) for use in the second datacenter; receiving connection state data from the second DCN describing connections between the external entities and the other DCNs of the logical network, the connection state data using the third network address (S1); replacing the third network address (S1) with the second network address (S2) in the connection state data using the stored mapping ; and storing the connection state data with the replaced network address .