mhurhangee/ep-ind-claims huggingface dataset:
A stowable table assembly for a vehicle, the stowable table assembly comprising: side walls defining a cavity providable beneath a floor of the vehicle; an elongate carrier coupled to the cavity side walls, a first end of the carrier being configured to rotate and translate relative to the cavity between a stowed position, in which the carrier is stowed in the cavity, and a substantially upright position, in which the carrier extends from the cavity; and a table top coupled to the carrier, a first end of the table top being configured to translate and rotate relative to the carrier between an aligned position, in which the table top is aligned with the carrier, and an extended position, in which the table top is at an angle relative to the carrier, wherein the stowable table assembly is in a deployed configuration when the carrier is in the upright position and the table top is in the extended position, and wherein the stowable table assembly is in a stowed configuration when the table top is in the aligned position and the carrier is in the stowed position, characterised in that the carrier comprises at least one guide (38a, 38b) and the table top comprises at least one follower (52a, 52b) configured to be guided by the guide (38a, 38b) so as to guide movement of the table top relative to the carrier. side walls defining a cavity providable beneath a floor of the vehicle; an elongate carrier coupled to the cavity side walls, a first end of the carrier being configured to rotate and translate relative to the cavity between a stowed position, in which the carrier is stowed in the cavity, and a substantially upright position, in which the carrier extends from the cavity; and a table top coupled to the carrier, a first end of the table top being configured to translate and rotate relative to the carrier between an aligned position, in which the table top is aligned with the carrier, and an extended position, in which the table top is at an angle relative to the carrier, wherein the stowable table assembly is in a deployed configuration when the carrier is in the upright position and the table top is in the extended position, and wherein the stowable table assembly is in a stowed configuration when the table top is in the aligned position and the carrier is in the stowed position, characterised in that the carrier comprises at least one guide (38a, 38b) and the table top comprises at least one follower (52a, 52b) configured to be guided by the guide (38a, 38b) so as to guide movement of the table top relative to the carrier.
A communication network for a low-voltage switchboard, said switchboard comprising at least one electrical switching device and at least one electronic protection device operatively connected to said electrical switching device, said electronic protection device comprising at least one protection and control unit, the communication network comprising: - a first communication bus, designed to provide a first communication channel with said electronic protection device, a first user access level being associated with said first communication; and - a second communication bus, designed to provide a second communication channel with said electronic protection device, a second user access level being associated with said first communication bus, said second user access level being higher than said first user access level; and - at least one third communication bus, designed to provide a third communication channel between said at least one protection and control unit and one or more additional electronic modules (6A, 6B, 6C, 6E, 6F); characterised in that: wherein said protection and control unit and/or at least one of said additional electronic modules (6A, 6B, 6C 6E, 6F) comprise respectively first computerised means and/or second computerised means for an automatic recognition of the additional electronic modules (6A, 6B, 6C, 6E, 6F) operatively connected to said third communication bus. - a first communication bus, designed to provide a first communication channel with said electronic protection device, a first user access level being associated with said first communication; and - a second communication bus, designed to provide a second communication channel with said electronic protection device, a second user access level being associated with said first communication bus, said second user access level being higher than said first user access level; and - at least one third communication bus, designed to provide a third communication channel between said at least one protection and control unit and one or more additional electronic modules (6A, 6B, 6C, 6E, 6F); characterised in that: wherein said protection and control unit and/or at least one of said additional electronic modules (6A, 6B, 6C 6E, 6F) comprise respectively first computerised means and/or second computerised means for an automatic recognition of the additional electronic modules (6A, 6B, 6C, 6E, 6F) operatively connected to said third communication bus.
A method of adjusting a watt density distribution of a resistive heater comprising: (a) designing a baseline heater circuit; characterized in that the method further comprises (b) designing a detection circuit having a constant trace watt density, wherein the detection circuit overlaps the baseline heater circuit and includes a margin; (c) manufacturing the detection circuit; (d) applying power to the detection circuit and obtaining a baseline thermal map; (e) manufacturing a baseline heater circuit from the detection circuit; (f) applying power to the baseline heater circuit and obtaining a nominal thermal map; (g) assembling the baseline heater circuit to a thermal device; (h) applying power to the baseline heater circuit and obtaining a thermal map of a target surface; repeating steps (a) through (h) to achieve a desired temperature profile along the target surface; (i) manufacturing a subsequent detection circuit; (j) applying power to the subsequent detection circuit and obtaining an actual thermal map; (k) creating a subtraction thermal image by subtracting the baseline thermal map from the actual thermal map; and (l) modifying a subsequent baseline heater circuit according to the subtraction thermal image. (a) designing a baseline heater circuit; characterized in that the method further comprises (b) designing a detection circuit having a constant trace watt density, wherein the detection circuit overlaps the baseline heater circuit and includes a margin; (c) manufacturing the detection circuit; (d) applying power to the detection circuit and obtaining a baseline thermal map; (e) manufacturing a baseline heater circuit from the detection circuit; (f) applying power to the baseline heater circuit and obtaining a nominal thermal map; (g) assembling the baseline heater circuit to a thermal device; (h) applying power to the baseline heater circuit and obtaining a thermal map of a target surface; repeating steps (a) through (h) to achieve a desired temperature profile along the target surface; (i) manufacturing a subsequent detection circuit; (j) applying power to the subsequent detection circuit and obtaining an actual thermal map; (k) creating a subtraction thermal image by subtracting the baseline thermal map from the actual thermal map; and (l) modifying a subsequent baseline heater circuit according to the subtraction thermal image.
A closing unit for an injection moulding machine comprising at least two tool platens (2, 4), at least one tool platen of which is movable, and at least one moulding tool, in which the formation of a mould cavity which is able to be opened and closed is made possible from a first moulding tool part and from a second moulding tool part, wherein the closing unit has a dummy unit which, viewed in a closing direction of the closing unit, is arranged between the tool platens (2, 4), characterized in that the first moulding tool part is rotatably fixed to the dummy unit by means of a rotary unit/rotary plate relative to the dummy unit and or to the second moulding tool part such that the rotation axis is arranged parallel to an opening- and closing direction of the moulding tool.
A table for a vehicle, comprising: - a first table element, suitable for being secured to the vehicle, - at least one second table element, mounted movably on the first table element between a deployed position and a withdrawn position, the second element being mounted translatably on the first element between the deployed position and the withdrawn position, - at least one third table element mounted rotatably on the second table element between an idle position and a deployed position, the table being characterized in that it further comprises means for coupling movements of the second and third table elements (14, 16), configured to rotate the third table element from its idle position to its deployed position when the second element is translated from its deployed position to its withdrawn position. - a first table element, suitable for being secured to the vehicle, - at least one second table element, mounted movably on the first table element between a deployed position and a withdrawn position, the second element being mounted translatably on the first element between the deployed position and the withdrawn position, - at least one third table element mounted rotatably on the second table element between an idle position and a deployed position,
Method for transferring signals and or power through a drill pipe system during drilling of a subsurface well, wherein the pipe system comprises a first pipe provided inside a second pipe by means of hanging devices (3, 3a); wherein the method is characterized in that it comprises the steps: a) providing the first pipe electrically insulated from the second pipe; b) connecting a first signal transceiver and or a power supply device electrically to the top of the drill pipe system; c) connect a second signal transceiver and or a power consuming device electrically along or in the bottom of the drill pipe system; wherein the first and second signal transceivers and or power supply device and power consuming device are electrically connected to the first and second pipes for transferring the signals and or power through the drill pipe system. a) providing the first pipe electrically insulated from the second pipe; b) connecting a first signal transceiver and or a power supply device electrically to the top of the drill pipe system; c) connect a second signal transceiver and or a power consuming device electrically along or in the bottom of the drill pipe system;
Method for sterilizing packaging containers, comprising the steps of: treating the interior of a packaging container with a mixture consisting of water vapor and a disinfectant with a temperature of at least 90°C, particularly at least 95°C; and simultaneously treating the exterior of the packaging container with an agent comprising a disinfectant, at a temperature below 40°C, particularly with a temperature between 20°C and 30°C. treating the interior of a packaging container with a mixture consisting of water vapor and a disinfectant with a temperature of at least 90°C, particularly at least 95°C; and simultaneously treating the exterior of the packaging container with an agent comprising a disinfectant, at a temperature below 40°C, particularly with a temperature between 20°C and 30°C.
A method for replacing a first sensor with a second sensor in a field device system configured to determine a process variable, each of the first and second sensor being provided with near field communication, NFC, functionality, the method comprising: connecting the second sensor to an initiation device and initiating the second sensor based on information uniquely identifying the first sensor; disconnecting the second sensor from the initiation device; placing the second sensor in the vicinity of the first sensor so that NFC-communication is enabled; with the first sensor being connected to a power source and the second sensor not being connected to an external power source, communicatively connecting the first sensor to the second sensor via NFC and transferring settings from the first sensor to the second sensor; replacing the first sensor of the field device system with the second sensor; connecting the first sensor to the initiation device; and transferring a verification from the first sensor to the initiation device confirming that the transfer of settings from the first sensor to the second sensor was completed. connecting the second sensor to an initiation device and initiating the second sensor based on information uniquely identifying the first sensor; disconnecting the second sensor from the initiation device; placing the second sensor in the vicinity of the first sensor so that NFC-communication is enabled; with the first sensor being connected to a power source and the second sensor not being connected to an external power source, communicatively connecting the first sensor to the second sensor via NFC and transferring settings from the first sensor to the second sensor; replacing the first sensor of the field device system with the second sensor; connecting the first sensor to the initiation device; and transferring a verification from the first sensor to the initiation device confirming that the transfer of settings from the first sensor to the second sensor was completed.
A process for equalizing pressure of a flow stream across a valve, said process comprising: providing a first process valve having a flow stream of a process fluid with a first pressure on a pump side and a second pressure on a second side of said first process valve; providing a pump upstream from said pump side of said first process valve, wherein said pump comprises a floating piston within a housing, one side of said floating piston being in fluid connection with a first non-abrasive fluid line so that said floating piston transmits the pressure of the non-abrasive fluid by pushing against the process fluid on the other side of the floating piston characterised in that the method comprises the steps of: providing a first slave cylinder containing a reciprocating piston having one side in fluid connection with said flow stream of the process fluid downstream from said second side of said first process valve, the other side of said reciprocating piston being in fluid connection with the first non-abrasive fluid line; arranging a needle valve along the first non-abrasive fluid line between said pump and said first slave cylinder; and actuating said needle valve to permit flow of the non-abrasive fluid between said first slave cylinder and said pump thereby equalizing said first pressure with said second pressure. providing a first process valve having a flow stream of a process fluid with a first pressure on a pump side and a second pressure on a second side of said first process valve; providing a pump upstream from said pump side of said first process valve, wherein said pump comprises a floating piston within a housing, one side of said floating piston being in fluid connection with a first non-abrasive fluid line so that said floating piston transmits the pressure of the non-abrasive fluid by pushing against the process fluid on the other side of the floating piston characterised in that the method comprises the steps of: providing a first slave cylinder containing a reciprocating piston having one side in fluid connection with said flow stream of the process fluid downstream from said second side of said first process valve, the other side of said reciprocating piston being in fluid connection with the first non-abrasive fluid line; arranging a needle valve along the first non-abrasive fluid line between said pump and said first slave cylinder; and actuating said needle valve to permit flow of the non-abrasive fluid between said first slave cylinder and said pump thereby equalizing said first pressure with said second pressure. providing a first slave cylinder containing a reciprocating piston having one side in fluid connection with said flow stream of the process fluid downstream from said second side of said first process valve, the other side of said reciprocating piston being in fluid connection with the first non-abrasive fluid line; arranging a needle valve along the first non-abrasive fluid line between said pump and said first slave cylinder; and actuating said needle valve to permit flow of the non-abrasive fluid between said first slave cylinder and said pump thereby equalizing said first pressure with said second pressure.
An automatic tool changer for storing, in a tool storage unit, a plurality of tools (P1,P2,P3,P4) installed side by side on a tool installation unit of a press brake, the automatic tool changer comprising: a pair of servo motors; first and second tool change units (13UL,13UR) configured to be driven respectively by the pair of servo motors and move along an arrangement direction of the tools (P1,P2,P3,P4) on the tool installation unit; a torque detection unit configured to detect a torque of each of the pair of servo motors; and a control device configured to control operations of the first and second tool change units (13UL,13UR), wherein the control device is configured to fix the first tool change unit at a predetermined reference position (Pst), move the second tool change unit toward the first tool change unit, and determine, based on a torque change of each of the servo motors detected by the torque detection unit, that the plurality of tools (P1,P2,P3,P4) are brought together at the first tool change unit as a result of a movement of the second tool change unit, wherein the control device is configured to determine that the plurality of tools (P1, P2,P3,P4) are brought together when the torque of the servo motor for driving the second tool change unit is equal to or higher than a torque threshold value. a pair of servo motors; first and second tool change units (13UL,13UR) configured to be driven respectively by the pair of servo motors and move along an arrangement direction of the tools (P1,P2,P3,P4) on the tool installation unit; a torque detection unit configured to detect a torque of each of the pair of servo motors; and a control device configured to control operations of the first and second tool change units (13UL,13UR), wherein the control device is configured to fix the first tool change unit at a predetermined reference position (Pst), move the second tool change unit toward the first tool change unit, and determine, based on a torque change of each of the servo motors detected by the torque detection unit, that the plurality of tools (P1,P2,P3,P4) are brought together at the first tool change unit as a result of a movement of the second tool change unit, wherein the control device is configured to determine that the plurality of tools (P1, P2,P3,P4) are brought together when the torque of the servo motor for driving the second tool change unit is equal to or higher than a torque threshold value.
A computer-implemented method for filtering seismic image data, comprising: receiving, by a processor (110; 210), a first image data, which is seismic image data being corrupted by a first noise; accessing, by the processor (110; 210), a library (120; 220) storing entries from previously analyzed image data, wherein each entry includes noise corrupted image data and a filter parameter of a filter used to reduce said noise; determining a correlation between the first image data and the corrupted image data of the entries of the library (120; 220); generating a correlation value describing the correlation between each entry and the first image data; automatically selecting, by the processor (110; 210), an entry from the library (120; 220) having a correlation value greater than a threshold; and applying, by the processor (110; 210), a noise filter to the first image data to reduce the noise in the first image data, wherein the noise filter is applied according to the first filter parameter specified by the selected entry. receiving, by a processor (110; 210), a first image data, which is seismic image data being corrupted by a first noise; accessing, by the processor (110; 210), a library (120; 220) storing entries from previously analyzed image data, wherein each entry includes noise corrupted image data and a filter parameter of a filter used to reduce said noise; determining a correlation between the first image data and the corrupted image data of the entries of the library (120; 220); generating a correlation value describing the correlation between each entry and the first image data; automatically selecting, by the processor (110; 210), an entry from the library (120; 220) having a correlation value greater than a threshold; and applying, by the processor (110; 210), a noise filter to the first image data to reduce the noise in the first image data, wherein the noise filter is applied according to the first filter parameter specified by the selected entry.
An indoor unit of an air-conditioning apparatus, comprising: a main body having an air inlet and an air outlet, the main body being installable on a wall surface in a room; a fan configured to suck indoor air from the air inlet and form an air path to the air outlet; a heat exchanger arranged in the air path and executes part of a refrigeration cycle; a wind-direction adjusting device (9, 10) arranged at the air outlet and configured to adjust a blowing direction of air conditioned by the heat exchanger; an image pickup device configured to capture an image of the inside of the room; a controller configured to control the wind-direction adjusting device (9, 10) based on information on a person whose image has been captured by the image pickup device; and a receiver configured to receive a signal from a remote controller, wherein the controller recognizes a face of a person, when the face of the person is present within a face recognition range between a first distance and a second distance, greater than the first distance, from the image pickup device in a field of the image pickup device, activates the refrigeration cycle when the controller recognizes the face of the person while the refrigeration cycle is stopped, when the person whose face has been recognized moves, tracks the person whose face has been recognized and specifies a position of the person whose face has been recognized, and controls the wind-direction adjusting device (9, 10) so that the conditioned air is blown toward the specified position. a main body having an air inlet and an air outlet, the main body being installable on a wall surface in a room; a fan configured to suck indoor air from the air inlet and form an air path to the air outlet; a heat exchanger arranged in the air path and executes part of a refrigeration cycle; a wind-direction adjusting device (9, 10) arranged at the air outlet and configured to adjust a blowing direction of air conditioned by the heat exchanger; an image pickup device configured to capture an image of the inside of the room; a controller configured to control the wind-direction adjusting device (9, 10) based on information on a person whose image has been captured by the image pickup device; and a receiver configured to receive a signal from a remote controller, wherein the controller recognizes a face of a person, when the face of the person is present within a face recognition range between a first distance and a second distance, greater than the first distance, from the image pickup device in a field of the image pickup device, activates the refrigeration cycle when the controller recognizes the face of the person while the refrigeration cycle is stopped, when the person whose face has been recognized moves, tracks the person whose face has been recognized and specifies a position of the person whose face has been recognized, and controls the wind-direction adjusting device (9, 10) so that the conditioned air is blown toward the specified position.