mhurhangee/ep-ind-claims huggingface dataset:
A robotic arm control system, comprising: a robotic arm configured to deploy one or more tools in an operating space; one or more sensors; and a control system; characterized by the control system being operably configured to: scan the operating space with the one or more sensors to identify one or more surfaces (900a, 900b) defining the operating space; combine data received from the one or more sensors; use the combined data to generate a three-dimensional map of the operating space based at least in part on the one or more surfaces (900a, 900b) defining the operating space; establish an impermeable virtual barrier offset from one or more surfaces (900a, 900b) in the operating space; and establish a permeable virtual barrier offset from the impermeable virtual barrier. a robotic arm configured to deploy one or more tools in an operating space; one or more sensors; and a control system; characterized by the control system being operably configured to: scan the operating space with the one or more sensors to identify one or more surfaces (900a, 900b) defining the operating space; combine data received from the one or more sensors; use the combined data to generate a three-dimensional map of the operating space based at least in part on the one or more surfaces (900a, 900b) defining the operating space; establish an impermeable virtual barrier offset from one or more surfaces (900a, 900b) in the operating space; and establish a permeable virtual barrier offset from the impermeable virtual barrier. scan the operating space with the one or more sensors to identify one or more surfaces (900a, 900b) defining the operating space; combine data received from the one or more sensors; use the combined data to generate a three-dimensional map of the operating space based at least in part on the one or more surfaces (900a, 900b) defining the operating space; establish an impermeable virtual barrier offset from one or more surfaces (900a, 900b) in the operating space; and establish a permeable virtual barrier offset from the impermeable virtual barrier.
A dialysis fluid for use in peritoneal dialysis comprising sodium ions, osmotic agent, a buffer, and citrate at a level of 7-8 mM in a final ready for use solution.
A memory system comprising a nonvolatile memory, a control circuit that controls the nonvolatile memory, an MPU that controls the control circuit, and an interface circuit that performs communication with a host, characterised in that the control circuit includes: a reading unit that outputs a read enable signal to the nonvolatile memory to read data; a delay unit that delays a signal obtained by returning the read enable signal and outputs the signal as a clock; and a latch unit that latches and outputs the data read from the nonvolatile memory by using the clock output from the delay unit. a reading unit that outputs a read enable signal to the nonvolatile memory to read data; a delay unit that delays a signal obtained by returning the read enable signal and outputs the signal as a clock; and a latch unit that latches and outputs the data read from the nonvolatile memory by using the clock output from the delay unit.
A user interface for an interactive device, the user interface comprising: an interactive surface formed by an array of displaceable surface members; an oscillatory signal generator configured to generate an oscillatory signal; and characterized by: a cable array coupled to the oscillatory signal generator, wherein the surface members are connected to the cable array such that the oscillatory signal is carried from the oscillatory signal generator to the surface members, and wherein the surface members have a resting position with respect to the cable array and movement of the surface members from the resting position causes the cable array to move thereby adjusting the oscillatory signal to produce a modified oscillatory signal and/or a modified oscillatory signal causes the cable array to move thereby forcing the surface members to move from the resting position; the user interface further comprising a signal converter which converts the modified oscillatory signal to and/or from an electrical signal of the interactive device. an interactive surface formed by an array of displaceable surface members; an oscillatory signal generator configured to generate an oscillatory signal; and characterized by: a cable array coupled to the oscillatory signal generator, wherein the surface members are connected to the cable array such that the oscillatory signal is carried from the oscillatory signal generator to the surface members, and wherein the surface members have a resting position with respect to the cable array and movement of the surface members from the resting position causes the cable array to move thereby adjusting the oscillatory signal to produce a modified oscillatory signal and/or a modified oscillatory signal causes the cable array to move thereby forcing the surface members to move from the resting position; the user interface further comprising a signal converter which converts the modified oscillatory signal to and/or from an electrical signal of the interactive device. a cable array coupled to the oscillatory signal generator, wherein the surface members are connected to the cable array such that the oscillatory signal is carried from the oscillatory signal generator to the surface members, and wherein the surface members have a resting position with respect to the cable array and movement of the surface members from the resting position causes the cable array to move thereby adjusting the oscillatory signal to produce a modified oscillatory signal and/or a modified oscillatory signal causes the cable array to move thereby forcing the surface members to move from the resting position; the user interface further comprising a signal converter which converts the modified oscillatory signal to and/or from an electrical signal of the interactive device.
A positioner comprising: a displacement amount detector configured to detect an amount of displacement of a valve stem of a regulating valve and configured to output a pair of detection signals; a multi-layered board (15, 16) on which a pair of signal interconnections (22, 23) having the pair of detection signals supplied thereto is formed; a circuit board on which an electronic circuit generating a control signal for controlling a valve opening of the regulating valve, on the basis of the pair of detection signals that are input through the pair of signal interconnections, is formed; and a housing that accommodates at least the multi-layered board and the circuit board, wherein the multi-layered board includes a first interconnection layer in which a first interconnection pattern is formed, and a second interconnection layer that has the pair of signal interconnections formed therein and is disposed on the first interconnection layer through an interlayer insulation film, and wherein the first interconnection pattern is electrically connected to the housing and is formed so as to overlap the pair of signal interconnections formed in the second interconnection layer when seen in a plan view. a displacement amount detector configured to detect an amount of displacement of a valve stem of a regulating valve and configured to output a pair of detection signals; a multi-layered board (15, 16) on which a pair of signal interconnections (22, 23) having the pair of detection signals supplied thereto is formed; a circuit board on which an electronic circuit generating a control signal for controlling a valve opening of the regulating valve, on the basis of the pair of detection signals that are input through the pair of signal interconnections, is formed; and a housing that accommodates at least the multi-layered board and the circuit board, wherein the multi-layered board includes a first interconnection layer in which a first interconnection pattern is formed, and a second interconnection layer that has the pair of signal interconnections formed therein and is disposed on the first interconnection layer through an interlayer insulation film, and a first interconnection layer in which a first interconnection pattern is formed, and a second interconnection layer that has the pair of signal interconnections formed therein and is disposed on the first interconnection layer through an interlayer insulation film, and wherein the first interconnection pattern is electrically connected to the housing and is formed so as to overlap the pair of signal interconnections formed in the second interconnection layer when seen in a plan view.
A dosing apparatus for a machine for producing unit dose articles, comprising a first dosing unit and a second dosing unit, each dosing unit (50, 52) comprising: - a nozzle support body (54, 56), - a plurality of nozzles (58, 60) having respective fluid delivery apertures, carried by said nozzle support body (54, 56) and connected to a fluid delivery system via at least one flexible tube (62, 64), and - a movement control unit (66, 68) configured for moving the respective nozzle support body (54, 56) along a closed-loop path having a lower delivery section and an upper return section, wherein the movement control units (66, 68) of the first and second dosing unit (50, 52) are configured for moving the respective nozzle support bodies (54, 56) independently and of each other along said closed-loop path. - a nozzle support body (54, 56), - a plurality of nozzles (58, 60) having respective fluid delivery apertures, carried by said nozzle support body (54, 56) and connected to a fluid delivery system via at least one flexible tube (62, 64), and - a movement control unit (66, 68) configured for moving the respective nozzle support body (54, 56) along a closed-loop path having a lower delivery section and an upper return section,
A vaporizable material insert (122, 222, 322) for use with a vaporizer device to form an inhalable aerosol, the vaporizable material insert (122, 222, 322) comprising: a housing (260, 360, 460) including an inlet and an outlet; an airflow control feature (255, 355, 455) comprising a vaporizable material, the airflow control feature (255, 355, 455) extending between the inlet and the outlet of the housing (260, 360, 460); and an airflow pathway (265, 365, 465) extending between the inlet and the outlet of the housing (260, 360, 460) and at least partly formed by the airflow control feature (255, 355, 455), the airflow pathway (265, 365, 465) allowing a heated airflow to travel therealong and including an upstream section (256, 356, 456) and a downstream section (258, 358, 458), the upstream section (256, 356, 456) including a first airflow pathway (265, 365, 465) characteristic that controls a first airflow characteristic of the heated airflow for achieving a first amount of heat transfer between the heated airflow at a first temperature and the vaporizable material along the upstream section (256, 356, 456), the downstream section (258, 358, 458) including a second airflow pathway (265, 365, 465) characteristic that controls a second airflow characteristic of the heated airflow for achieving a second amount of heat transfer between the heated airflow at a second temperature and the vaporizable material along the downstream section (258, 358, 458), the first temperature being higher than the second temperature, and the first amount of heat transfer being approximately the same as the second amount of heat transfer. a housing (260, 360, 460) including an inlet and an outlet; an airflow control feature (255, 355, 455) comprising a vaporizable material, the airflow control feature (255, 355, 455) extending between the inlet and the outlet of the housing (260, 360, 460); and an airflow pathway (265, 365, 465) extending between the inlet and the outlet of the housing (260, 360, 460) and at least partly formed by the airflow control feature (255, 355, 455), the airflow pathway (265, 365, 465) allowing a heated airflow to travel therealong and including an upstream section (256, 356, 456) and a downstream section (258, 358, 458), the upstream section (256, 356, 456) including a first airflow pathway (265, 365, 465) characteristic that controls a first airflow characteristic of the heated airflow for achieving a first amount of heat transfer between the heated airflow at a first temperature and the vaporizable material along the upstream section (256, 356, 456), the downstream section (258, 358, 458) including a second airflow pathway (265, 365, 465) characteristic that controls a second airflow characteristic of the heated airflow for achieving a second amount of heat transfer between the heated airflow at a second temperature and the vaporizable material along the downstream section (258, 358, 458), the first temperature being higher than the second temperature, and the first amount of heat transfer being approximately the same as the second amount of heat transfer.
Use of a synergistic fungicidal mixture, comprising: a fungicidally effective amount of the compound of Formula I, -1,1-bis(4-fluorophenyl)propan-2-yl (3-acetoxy-4-methoxypicolinoyl)-L-alaninate: and at least one additional fungicide selected from the group consisting of sterol biosynthesis inhibitors, respiration inhibitors, and multi-site action inhibitors, wherein the sterol biosynthesis inhibitor is selected from the group consisting of epoxiconazole, prothioconazole and difenoconazole; the respiration inhibitor is selected from the group consisting of azoxystrobin, pyraclostrobin and picoxystrobin or from the group consisting of fluxapyroxad, benzovindiflupyr, penthiopyrad and bixafen; or the multi-site inhibitor is selected from the group consisting of chlorothalonil and mancozeb, for fungal control in vegetables. at least one additional fungicide selected from the group consisting of sterol biosynthesis inhibitors, respiration inhibitors, and multi-site action inhibitors, wherein the sterol biosynthesis inhibitor is selected from the group consisting of epoxiconazole, prothioconazole and difenoconazole; the respiration inhibitor is selected from the group consisting of azoxystrobin, pyraclostrobin and picoxystrobin or from the group consisting of fluxapyroxad, benzovindiflupyr, penthiopyrad and bixafen; or the multi-site inhibitor is selected from the group consisting of chlorothalonil and mancozeb, for fungal control in vegetables.
An electrochemical cell comprising: a first frame, the first frame having at least one first cleat feature arranged on one side, the at least one first cleat feature having a first height; a second frame, the second frame having at least one second cleat feature arranged on one side, the at least one second cleat feature having a second height; a membrane electrode assembly disposed between the first frame and the second frame, the MEA having a first electrode disposed on a first side of a membrane, the MEA further having a second electrode disposed on a second side opposite the first electrode; a first gasket (324,326) disposed between the membrane and the first frame, the first gasket (324,326) engaging the at least one first cleat feature 327, the first gasket (324,326) having a first thickness; and a second gasket (324,326) disposed between the membrane and the second frame, the second gasket (324,326) engaging the at least one second cleat feature, the second gasket (324,326) having a second thickness, wherein the first height is less than or equal to the first thickness, and the second height is less than or equal to the second thickness, such that the first cleat feature and the second cleat feature are not able to penetrate the MEA; wherein the first frame includes a first lip along a side adjacent the first gasket (324,326), the lip extending away from an inner perimeter of the first frame, wherein the first lip has an inner perimeter that is larger than an inner edge of the first gasket (324,326). a first frame, the first frame having at least one first cleat feature arranged on one side, the at least one first cleat feature having a first height; a second frame, the second frame having at least one second cleat feature arranged on one side, the at least one second cleat feature having a second height; a membrane electrode assembly disposed between the first frame and the second frame, the MEA having a first electrode disposed on a first side of a membrane, the MEA further having a second electrode disposed on a second side opposite the first electrode; a first gasket (324,326) disposed between the membrane and the first frame, the first gasket (324,326) engaging the at least one first cleat feature 327, the first gasket (324,326) having a first thickness; and a second gasket (324,326) disposed between the membrane and the second frame, the second gasket (324,326) engaging the at least one second cleat feature, the second gasket (324,326) having a second thickness, wherein the first height is less than or equal to the first thickness, and the second height is less than or equal to the second thickness, such that the first cleat feature and the second cleat feature are not able to penetrate the MEA; wherein the first frame includes a first lip along a side adjacent the first gasket (324,326), the lip extending away from an inner perimeter of the first frame, wherein the first lip has an inner perimeter that is larger than an inner edge of the first gasket (324,326).
An isolated cDNA having the nucleic acid sequence of SEQ ID NO: 1, said nucleic acid encoding a protein having the amino acid sequence of SEQ ID NO: 2.
Refrigeration appliance, in particular household refrigeration appliance, having an inner container with a front opening which can be closed off by a door leaf for the removal and/or depositing of refrigerated goods, and a pull-out refrigerated goods container, as well as mounting means for mounting the refrigerated goods container in the inner container in a pull-out manner, wherein the mounting means has at least one roller (8a, 8b) arranged on a rear region of the base of the refrigerated goods container, which roller rolls along a counter rolling area (9a, 9b) on the base of the inner container in the pull-out direction, characterised in that the mounting means has at least one slide bearing point (6a, 6b) arranged on a front region of a base of the inner container, against which a counter-slide bearing area (7a, 7b) of a base of the refrigerated goods container is supported.
A method for synchronizing data, comprising: determining (101, 301) a data type of target data to be synchronized, wherein the data type is obtained based on a frequency of data changes or a number of data changes, the target data is indicated by a data synchronization command received; determining (102, 302) whether the data type of the target data is a preset data type; adding (103, 303) the target data to a data cache area when the data type of the target data is the preset data type, wherein the data cache area is created by a terminal based on a cache area creation request received; synchronizing (104, 304) the target data in the data cache area to a cloud server, after a preset interval comprising: starting a timing when the target data is added to the data cache area, and synchronizing the target data in the data cache area to the cloud server when a time duration of the timing reaches a preset time duration; and sending a data synchronization request carrying the target data to the cloud server to synchronize the target data to the cloud server when the data type of the target data is not the preset data type. determining (101, 301) a data type of target data to be synchronized, wherein the data type is obtained based on a frequency of data changes or a number of data changes, the target data is indicated by a data synchronization command received; determining (102, 302) whether the data type of the target data is a preset data type; adding (103, 303) the target data to a data cache area when the data type of the target data is the preset data type, wherein the data cache area is created by a terminal based on a cache area creation request received; synchronizing (104, 304) the target data in the data cache area to a cloud server, after a preset interval comprising: starting a timing when the target data is added to the data cache area, and synchronizing the target data in the data cache area to the cloud server when a time duration of the timing reaches a preset time duration; and sending a data synchronization request carrying the target data to the cloud server to synchronize the target data to the cloud server when the data type of the target data is not the preset data type.
A method for grid support by means of an inverter, wherein the grid is supported by feeding in compensation currents, comprising the following steps: - measuring a prevailing grid state (step 100); - breaking down voltages measured for measuring the prevailing grid state into positive sequence system components and negative sequence system components (step 101); - determining symmetrical positive sequence system components and negative sequence system components of a compensation current as functions of deviations of the positive sequence system components and negative sequence system components of the grid state from reference values (steps 102, 103, 403); and - feeding-in a compensation current as the vector sum of the thus determined symmetrical positive sequence system components and negative sequence system components, characterized in that at least one of the reference values is determined as an average value of the respective symmetrical positive sequence system components and negative sequence system components of the grid state. - measuring a prevailing grid state (step 100); - breaking down voltages measured for measuring the prevailing grid state into positive sequence system components and negative sequence system components (step 101); - determining symmetrical positive sequence system components and negative sequence system components of a compensation current as functions of deviations of the positive sequence system components and negative sequence system components of the grid state from reference values (steps 102, 103, 403); and - feeding-in a compensation current as the vector sum of the thus determined symmetrical positive sequence system components and negative sequence system components,
A pitch control system for a wind turbine, comprising a first input terminal adapted to receive an input from at least one vibration sensor (80; 80a, 80b, 80c) disposed at or near a rotor blade (8; 8a, 8b, 8c) of said wind turbine, the vibration sensor (80; 80a, 80b, 80c) being adapted to detect a stall condition of the rotor blade (8; 8a, 8b, 8c), wherein the pitch control system is adapted to detect a stall condition of the rotor blade using input from said vibration sensor to control the pitch angle of said rotor blade on the basis of said sensor input to reduce the stall; and further comprising: a second input terminal adapted to receive an input from a rotation sensor adapted to detect a rotational position (α) of a rotor hub of said wind turbine, wherein the pitch control system is further adapted to detect a stall condition of the rotor blade using input from said vibration sensor to control the pitch angle of the rotor blade (8; 8a, 8b, 8c) on the basis of the input from said at least one vibration sensor (80; 80a, 80b, 80c) and said rotation sensor to reduce the stall. a second input terminal adapted to receive an input from a rotation sensor adapted to detect a rotational position (α) of a rotor hub of said wind turbine, wherein the pitch control system is further adapted to detect a stall condition of the rotor blade using input from said vibration sensor to control the pitch angle of the rotor blade (8; 8a, 8b, 8c) on the basis of the input from said at least one vibration sensor (80; 80a, 80b, 80c) and said rotation sensor to reduce the stall.
Rubber mixture which comprises at least one synthetic diene rubber, natural rubber, at least one silica, and also at least one mercaptosilane, in particular for treads of pneumatic tyres, characterized in that it comprises at least one polynorbornene rubber.