mhurhangee/patent-ind-claim-en huggingface dataset:
A process for recovering energy from a petroleum, petrochemical, or chemical plant comprising: providing at least a first fluid process stream in a petroleum, petrochemical, or chemical process zone; and controlling a flow rate of the first process stream by directing at least a portion of the first process stream through a first variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; characterised in that the process further comprises: providing at least a second fluid process stream flowing through the process zone; controlling a flow rate of the second process stream by directing at least a portion of the second process stream through at least a second variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; combining the direct current from the first and second power recovery turbines ; and converting the combined recovered direct current into recovered alternating current in a single DC to AC inverter ; and providing the recovered alternating current to a first substation. providing at least a first fluid process stream in a petroleum, petrochemical, or chemical process zone; and controlling a flow rate of the first process stream by directing at least a portion of the first process stream through a first variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; characterised in that the process further comprises: providing at least a second fluid process stream flowing through the process zone; controlling a flow rate of the second process stream by directing at least a portion of the second process stream through at least a second variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; combining the direct current from the first and second power recovery turbines ; and converting the combined recovered direct current into recovered alternating current in a single DC to AC inverter ; and providing the recovered alternating current to a first substation. providing at least a second fluid process stream flowing through the process zone; controlling a flow rate of the second process stream by directing at least a portion of the second process stream through at least a second variable-resistance power-recovery turbine to generate recovered electric power as direct current therefrom; combining the direct current from the first and second power recovery turbines ; and converting the combined recovered direct current into recovered alternating current in a single DC to AC inverter ; and providing the recovered alternating current to a first substation.
Method for the application and/or renewal of a protection for a thermal barrier coating system of a heat engine, said thermal barrier coating system comprising a bond coat layer and a thermal barrier coating layer of porous structure , wherein the bond coat layer is located between and in contact with a base metal of a heat engine component and with the thermal barrier coating layer and bonds the thermal barrier coating layer to the base metal , wherein at least one substance is applied inside the engine as a liquid or carried by a liquid by means of spraying and/or by flowing it across a hot gas exposed surface of the barrier coating layer of the heat engine component mounted within the heat engine in the assembled state prior to the initial start-up of the engine and/or between two operation intervals and/or during a washing cycle of the thermal engine, wherein the substance covers and/or partly penetrates into the porous structure , and concomitantly or subsequently hardens to remain on the upper surface and/or within the pores of the thermal barrier coating layer, wherein for the application of the substance the washing equipment for the turbine washing of the engine is used.
A master work vehicle configured to perform work in cooperation with a slave work vehicle capable of unmanned automatic travel, the master work vehicle comprising: a wireless module configured to receive, from the slave work vehicle, slave work and travel state information indicative of a work and travel state of the slave work vehicle; a work and travel state information generation module configured to generate master work and travel state information indicative of a work and travel state of the master work vehicle; a display device configured to display various kinds of information; a message preparation module configured to prepare a slave state message describing a state of the slave work vehicle, from the slave work and travel state information, and to prepare a master state message describing a state of the master work vehicle, from the master work and travel state information; and a notification control module configured to control the display device to display the slave state message and the master state message, and to add additional information to the slave state message and the master state message, for discrimination between the slave state message and the master state message, characterised in that the slave state message is displayed on the display device in conjunction with sound of first timbre, and the master state message is displayed on the display device in conjunction with sound of second timbre different from the first timbre. a wireless module configured to receive, from the slave work vehicle, slave work and travel state information indicative of a work and travel state of the slave work vehicle; a work and travel state information generation module configured to generate master work and travel state information indicative of a work and travel state of the master work vehicle; a display device configured to display various kinds of information; a message preparation module configured to prepare a slave state message describing a state of the slave work vehicle, from the slave work and travel state information, and to prepare a master state message describing a state of the master work vehicle, from the master work and travel state information; and a notification control module configured to control the display device to display the slave state message and the master state message, and to add additional information to the slave state message and the master state message, for discrimination between the slave state message and the master state message, characterised in that the slave state message is displayed on the display device in conjunction with sound of first timbre, and the master state message is displayed on the display device in conjunction with sound of second timbre different from the first timbre.
An upgrade method for a vehicle-mounted device, applied to a vehicle, wherein the vehicle comprises a vehicle-mounted control device and one or more to-be-upgraded vehicle-mounted devices, and the method comprises: obtaining (S501), by the vehicle-mounted control device, a vehicle-mounted upgrade package, wherein the vehicle-mounted upgrade package comprises a plurality of upgrade files; performing (S502), by the vehicle-mounted control device, security verification on the plurality of upgrade files; and sending (S503), by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file, wherein the target upgrade file is an upgrade file on which security verification succeeds in the plurality of upgrade files; wherein the sending (S503), by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file comprises: dividing, by the vehicle-mounted control device, the target upgrade file into a plurality of associated data blocks by using a preset algorithm; performing message authentication code, MAC, processing on the associated data blocks; and separately sending, by the vehicle-mounted control device to the target to-be-upgraded vehicle-mounted device, the plurality of data blocks. obtaining (S501), by the vehicle-mounted control device, a vehicle-mounted upgrade package, wherein the vehicle-mounted upgrade package comprises a plurality of upgrade files; performing (S502), by the vehicle-mounted control device, security verification on the plurality of upgrade files; and sending (S503), by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file, wherein the target upgrade file is an upgrade file on which security verification succeeds in the plurality of upgrade files; wherein the sending (S503), by the vehicle-mounted control device, a target upgrade file to a target to-be-upgraded vehicle-mounted device that is to be upgraded by using the target upgrade file comprises: dividing, by the vehicle-mounted control device, the target upgrade file into a plurality of associated data blocks by using a preset algorithm; performing message authentication code, MAC, processing on the associated data blocks; and separately sending, by the vehicle-mounted control device to the target to-be-upgraded vehicle-mounted device, the plurality of data blocks. dividing, by the vehicle-mounted control device, the target upgrade file into a plurality of associated data blocks by using a preset algorithm; performing message authentication code, MAC, processing on the associated data blocks; and separately sending, by the vehicle-mounted control device to the target to-be-upgraded vehicle-mounted device, the plurality of data blocks.
A self-heating assembly comprising: a product container for holding a product to be heated; a heater container coupled to the product container; a reaction space between the product container and the heater container; an open cell foam support structure in the reaction space; a granular second reactant distributed throughout the open cell foam support structure; a liquid first reactant in the reaction space; and a frangible membrane in the reaction space configured so that, when intact, it separates the liquid first reactant from the open cell foam support structure and from the granular second reactant, wherein the liquid first reactant and the granular second reactant are adapted to exothermically react upon contact with one another, and wherein the open cell foam support structure is permeable to the liquid first reactant and is configured to support and substantially maintain the distribution of the granular second reactant throughout the open cell foam support structure before and during the exothermic chemical reaction. a product container for holding a product to be heated; a heater container coupled to the product container; a reaction space between the product container and the heater container; an open cell foam support structure in the reaction space; a granular second reactant distributed throughout the open cell foam support structure; a liquid first reactant in the reaction space; and a frangible membrane in the reaction space configured so that, when intact, it separates the liquid first reactant from the open cell foam support structure and from the granular second reactant, wherein the liquid first reactant and the granular second reactant are adapted to exothermically react upon contact with one another, and wherein the open cell foam support structure is permeable to the liquid first reactant and is configured to support and substantially maintain the distribution of the granular second reactant throughout the open cell foam support structure before and during the exothermic chemical reaction.
A method performed by an assessment system for prioritization among cameras of a multi-camera arrangement , said method comprising: obtaining respective geographical camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2) of each of said cameras ; receiving , e.g. from a surveillance system in connection with said assessment system , information data indicating a geographical object position and object features of a geotagged physical object determined to be positioned in a surrounding in a potential field of view (213, 223, 233, 2n3) of each of said cameras ; determining for each of said cameras , by comparing said object position and object features with said respective camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2), a respective distance (D1, D2, D3, Dn) to said object position and a respective expected pixel size of said object at said respective distance (D1, D2, D3, Dn); determining respective conformity of said respective expected pixel size, with respective image data (214, 224, 234, 2n4) of said surrounding derived from each of said cameras ; and assigning each of said cameras a respective rating based on respective determined conformity. obtaining respective geographical camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2) of each of said cameras ; receiving , e.g. from a surveillance system in connection with said assessment system , information data indicating a geographical object position and object features of a geotagged physical object determined to be positioned in a surrounding in a potential field of view (213, 223, 233, 2n3) of each of said cameras ; determining for each of said cameras , by comparing said object position and object features with said respective camera position (211, 221, 231, 2n1) and camera properties (212, 222, 232, 2n2), a respective distance (D1, D2, D3, Dn) to said object position and a respective expected pixel size of said object at said respective distance (D1, D2, D3, Dn); determining respective conformity of said respective expected pixel size, with respective image data (214, 224, 234, 2n4) of said surrounding derived from each of said cameras ; and assigning each of said cameras a respective rating based on respective determined conformity.
A monostable permanent magnetic actuator using a laminated steel core, comprising: one pair of lamination cores formed as a plurality of metallic thin plates laminated to each other, and disposed to face each other; one pair of fixed plates which form a space having a rectangular sectional surface by connecting ends of said one pair of lamination cores to each other; a coil disposed to be adjacent to the lamination cores in the space, and configured to generate a magnetic force to the lamination cores by external power; a mover mounted in the space so as to be moved in up and down directions; permanent magnets installed in the space, and configured to apply an upward and downward magnetic force to the mover ; a guide means configured to guide an upward and downward motion of the mover ; and an elastic means configured to apply an elastic force to the mover in an opposite direction to the permanent magnets , wherein the mover comprises: a stem slidably inserted into a fixed core inside a bottom surface of the space; a head disposed above the stem ; and a movable core disposed above the head, and formed as a plurality of thin plates laminated to each other, and wherein the guide means comprises: guide slots formed in the head in upper and lower directions; and guide bars supported by the fixed plates , wherein the mover moves in a state that the guide bars have been inserted into the guide slots. . one pair of lamination cores formed as a plurality of metallic thin plates laminated to each other, and disposed to face each other; one pair of fixed plates which form a space having a rectangular sectional surface by connecting ends of said one pair of lamination cores to each other; a coil disposed to be adjacent to the lamination cores in the space, and configured to generate a magnetic force to the lamination cores by external power; a mover mounted in the space so as to be moved in up and down directions; permanent magnets installed in the space, and configured to apply an upward and downward magnetic force to the mover ; a guide means configured to guide an upward and downward motion of the mover ; and an elastic means configured to apply an elastic force to the mover in an opposite direction to the permanent magnets , wherein the mover comprises: a stem slidably inserted into a fixed core inside a bottom surface of the space; a head disposed above the stem ; and a movable core disposed above the head, and formed as a plurality of thin plates laminated to each other, and a stem slidably inserted into a fixed core inside a bottom surface of the space; a head disposed above the stem ; and a movable core disposed above the head, and formed as a plurality of thin plates laminated to each other, and wherein the guide means comprises: guide slots formed in the head in upper and lower directions; and guide bars supported by the fixed plates , wherein the mover moves in a state that the guide bars have been inserted into the guide slots. . guide slots formed in the head in upper and lower directions; and guide bars supported by the fixed plates , wherein the mover moves in a state that the guide bars have been inserted into the guide slots. .
A method for positioning a drilling accessory mounted on a support arm of a carrier machine , the positioning method including the following steps: - supplying a control device which is portable and which is configured to remotely control the drilling accessory , the control device including a control casing and an angle measurement device comprising a rotary member movably mounted in rotation on the control casing about an axis of rotation (A), the rotary member being equipped with a sighting device , - positioning, by an operator located in the operator cab of the carrier machine , the control device in the operator cab , - angular displacing the rotary member in a selected angular position so that the sighting device points towards a sighting point selected so that a sighting direction (Dv) indicated by the sighting device is substantially perpendicular to a coal face , and - measuring, by the angle measurement device , a predetermined angle (α) between a reference angular position of the rotary member and the selected angular position of the rotary member . - supplying a control device which is portable and which is configured to remotely control the drilling accessory , the control device including a control casing and an angle measurement device comprising a rotary member movably mounted in rotation on the control casing about an axis of rotation (A), the rotary member being equipped with a sighting device , - positioning, by an operator located in the operator cab of the carrier machine , the control device in the operator cab , - angular displacing the rotary member in a selected angular position so that the sighting device points towards a sighting point selected so that a sighting direction (Dv) indicated by the sighting device is substantially perpendicular to a coal face , and - measuring, by the angle measurement device , a predetermined angle (α) between a reference angular position of the rotary member and the selected angular position of the rotary member .
Reactor for conducting at least two reactants , having at least one longitudinally extending reaction channel which can be flowed through along its longitudinal extent by a first of the reactants , having at least one feed channel which can be flowed through by the second reactant and which is fluidically connected to the reaction channel via multiple passage openings which are spaced apart from one another and which can be flowed through by respective partial streams of the second reactant , wherein the respective partial streams of the second reactant can be fed via the passage openings to the reaction channel and thus to the first reactant in order to thus allow a chemical reaction of the reactants to occur in the reaction channel , and having at least one medium channel which surrounds the reaction channel and which can be flowed through by at least one medium by means of which, owing to an exchange of heat with the reaction channel , at least a temperature of the reaction channel can be influenced, characterized in that the reactor has, in the medium channel , a lattice structure which can be flowed around by the medium and which has multiple rods which are mechanically connected to one another at respective nodes of the lattice structure .
A talar implant comprising: a talar dome including a bone contact surface and an articulation surface located opposite the bone contact surface, the talar dome defining a cavity extending from the bone contact surface into the talar dome; and a stem (102; 202a; 202b; 202c) comprising a head and a longitudinal shaft (106; 206) coupled at a predetermined angle to the head, wherein the head is sized and configured to be received within the cavity , wherein the head is rotatable about at least one axis with respect to the talar dome , and wherein the longitudinal shaft (106; 206) comprises one or more features configured to interface with a wall of a hole formed in a bone to prevent movement of the stem with respect to the bone, characterized in that the one or more features comprises one or more grooves formed on the longitudinal shaft (106; 206). a talar dome including a bone contact surface and an articulation surface located opposite the bone contact surface, the talar dome defining a cavity extending from the bone contact surface into the talar dome; and a stem (102; 202a; 202b; 202c) comprising a head and a longitudinal shaft (106; 206) coupled at a predetermined angle to the head, wherein the head is sized and configured to be received within the cavity , wherein the head is rotatable about at least one axis with respect to the talar dome , and wherein the longitudinal shaft (106; 206) comprises one or more features configured to interface with a wall of a hole formed in a bone to prevent movement of the stem with respect to the bone, characterized in that the one or more features comprises one or more grooves formed on the longitudinal shaft (106; 206).