mhurhangee/ep-ind-claims huggingface dataset:
A gauging system, comprising: a gauge configured to sense a process variable and to provide process data representative of the process variable; a processing unit connected to the gauge, the processing unit comprising: - power supply circuitry configured to receive power from a remote external power source other than a two-wire control loop, which power source is not intrinsically safe, and to provide regulated power in an intrinsically safe manner; and - first circuitry configured to receive process data from the gauge and to superimpose the process data onto the regulated power forming a power signal; and a wireless communication unit electrically connected to the processing unit by means of a two-wire control loop, the wireless communication unit comprising: - second circuitry configured to receive the power signal and to separate the process data from the regulated power; - an antenna; and - radio frequency, RF, communication circuitry being powered by means of the regulated power from the second circuitry, configured to receive process data from the second circuitry, and to transmit RF signals representative of the process data using the antenna. a gauge configured to sense a process variable and to provide process data representative of the process variable; a processing unit connected to the gauge, the processing unit comprising: - power supply circuitry configured to receive power from a remote external power source other than a two-wire control loop, which power source is not intrinsically safe, and to provide regulated power in an intrinsically safe manner; and - first circuitry configured to receive process data from the gauge and to superimpose the process data onto the regulated power forming a power signal; and - power supply circuitry configured to receive power from a remote external power source other than a two-wire control loop, which power source is not intrinsically safe, and to provide regulated power in an intrinsically safe manner; and - first circuitry configured to receive process data from the gauge and to superimpose the process data onto the regulated power forming a power signal; and a wireless communication unit electrically connected to the processing unit by means of a two-wire control loop, the wireless communication unit comprising: - second circuitry configured to receive the power signal and to separate the process data from the regulated power; - an antenna; and - radio frequency, RF, communication circuitry being powered by means of the regulated power from the second circuitry, configured to receive process data from the second circuitry, and to transmit RF signals representative of the process data using the antenna. - second circuitry configured to receive the power signal and to separate the process data from the regulated power; - an antenna; and - radio frequency, RF, communication circuitry being powered by means of the regulated power from the second circuitry, configured to receive process data from the second circuitry, and to transmit RF signals representative of the process data using the antenna.
A process for cleaning a group III-V compound semiconductor wafer, comprising the sequential steps of 1) treating the wafer with a mixture of dilute ammonia, hydrogen peroxide and water at a temperature not higher than 20°C; 2) washing the wafer with deionized water; 3) treating the wafer with an oxidant; 4) washing the wafer with deionized water; 5) treating the wafer with a dilute acid solution or a dilute alkali solution; 6) washing the wafer with deionized water; and 7) drying the resulting wafer; wherein the mixture of dilute ammonia, hydrogen peroxide and water comprises the ammonia and hydrogen peroxide in an amount of (in weight percentages) 0.2-10.0% and 0.2-3.0% respectively, and the dilute acid solution or dilute alkali solution is (in weight percentages) a dilute acid solution of hydrochloric acid, hydrofluoric acid or nitric acid having a concentration of 0.1-12%, or a dilute alkali solution of ammonia, sodium hydroxide or potassium hydroxide having a concentration of 0.5-20%. 1) treating the wafer with a mixture of dilute ammonia, hydrogen peroxide and water at a temperature not higher than 20°C; 2) washing the wafer with deionized water; 3) treating the wafer with an oxidant; 4) washing the wafer with deionized water; 5) treating the wafer with a dilute acid solution or a dilute alkali solution; 6) washing the wafer with deionized water; and 7) drying the resulting wafer;
A printing apparatus comprising: a printing unit configured to form a first printing area in a recording medium which is transported by ejecting first ink onto a first path in a direction crossing a transport direction of the recording medium, to form a second printing area in the recording medium by ejecting second ink onto a second path different from the first path, and thereby to form an image which is configured with the first printing area and the second printing area; a decision unit configured to decide a first ejection position of the first ink in the first path and a second ejection position of the second ink in the second path, based on the image data which is input, when the image is formed; and a correction determination unit configured to perform ejection position change correction in which the first ejection position is changed such that the first ink is ejected onto the second path and the second ejection position is changed such that a part of the second ink is ejected onto the first path, based on decision results of the decision unit. a printing unit configured to form a first printing area in a recording medium which is transported by ejecting first ink onto a first path in a direction crossing a transport direction of the recording medium, to form a second printing area in the recording medium by ejecting second ink onto a second path different from the first path, and thereby to form an image which is configured with the first printing area and the second printing area; a decision unit configured to decide a first ejection position of the first ink in the first path and a second ejection position of the second ink in the second path, based on the image data which is input, when the image is formed; and a correction determination unit configured to perform ejection position change correction in which the first ejection position is changed such that the first ink is ejected onto the second path and the second ejection position is changed such that a part of the second ink is ejected onto the first path, based on decision results of the decision unit.
A method for positioning stationary communication terminals, including the steps that identity data and position-grounding information for a stationary communication terminal (1, 40) are entered into a position server (10, 11), position data related to said stationary communication terminal (1, 40) are registered in said position server (10, 11) depending on said position-grounding information, and a position database is supplemented with said identity data and the related position data, characterized in that said position-grounding information includes the telephone number of a mobile telephone located at the position of the stationary communication terminal, where the position of said mobile telephone is traced in its belonging mobile network (50, 51), and where the detected position of the mobile telephone constitutes said position data.
A liquid molding apparatus (100, 101) comprising: a metal mold having a cavity in which a preform is disposed; a nozzle (4, 4') connected to a mouth (PFb) of the preform; a seal body (5, 5') movable between a closed position where the seal body (5, 5') abuts an inner surface of the nozzle (4, 4') to close the nozzle (4, 4') and an open position where the seal body (5, 5') is kept away from the inner surface of the nozzle (4, 4') to open the nozzle (4, 4'); and a stretching rod (6, 6') vertically movable relative to the seal body (5, 5'), wherein a pressurized liquid is introduced into the preform from the nozzle (4, 4') to stretch the preform at least radially by moving the seal body (5, 5') from the closed position to the open position, and the preform is axially stretched by the stretching rod (6, 6'), thereby forming the preform into a container having a portion of a shape conforming to the cavity, the liquid molding apparatus (100, 101) includes a rod guide (16, 16') interposed between the seal body (5, 5') and the stretching rod (6, 6') to suppress misalignment in the radial direction of the stretching rod (6, 6') with respect to the seal body (4, 4') and to seal a gap between the seal body (5, 5') and the stretching rod (6, 6') in a fluid-tight manner, and characterized in that the seal body (5, 5') has a detachable portion (17, 17') detachably attached to the main body (14, 14') of the seal body (5, 5') to hold the rod guide (16, 16') between the detachable portion (17, 17') and the main body (14, 14'). a metal mold having a cavity in which a preform is disposed; a nozzle (4, 4') connected to a mouth (PFb) of the preform; a seal body (5, 5') movable between a closed position where the seal body (5, 5') abuts an inner surface of the nozzle (4, 4') to close the nozzle (4, 4') and an open position where the seal body (5, 5') is kept away from the inner surface of the nozzle (4, 4') to open the nozzle (4, 4'); and a stretching rod (6, 6') vertically movable relative to the seal body (5, 5'), wherein a pressurized liquid is introduced into the preform from the nozzle (4, 4') to stretch the preform at least radially by moving the seal body (5, 5') from the closed position to the open position, and the preform is axially stretched by the stretching rod (6, 6'), thereby forming the preform into a container having a portion of a shape conforming to the cavity, the liquid molding apparatus (100, 101) includes a rod guide (16, 16') interposed between the seal body (5, 5') and the stretching rod (6, 6') to suppress misalignment in the radial direction of the stretching rod (6, 6') with respect to the seal body (4, 4') and to seal a gap between the seal body (5, 5') and the stretching rod (6, 6') in a fluid-tight manner, and characterized in that the seal body (5, 5') has a detachable portion (17, 17') detachably attached to the main body (14, 14') of the seal body (5, 5') to hold the rod guide (16, 16') between the detachable portion (17, 17') and the main body (14, 14').
A method for implementing load sharing using hash factors, wherein a respective hash factor is used for adjusting a packet flow from one link to a link corresponding to the respective hash factor for forwarding, the method comprising: selecting, by a network device, a packet flow forwarded by using a first link, wherein the first link is a link in a congested state on a first forwarding node; selecting, by the network device, a second link that may be used to forward the packet flow, wherein the second link is a link that is not in a congested state after available bandwidth of the link is occupied by the packet flow, and the second link is a link between the first forwarding node and a second forwarding node; selecting, by the network device, a first hash factor corresponding to the second link; determining, by the network device, that a third link is not in a congested state after available bandwidth of the third link is occupied by the packet flow, wherein the third link is a link that is on the second forwarding node and that is corresponding to the first hash factor, and the third link is a link between the second forwarding node and a third forwarding node; and saving, by the network device, the first hash factor in a source node of the packet flow. selecting, by a network device, a packet flow forwarded by using a first link, wherein the first link is a link in a congested state on a first forwarding node; selecting, by the network device, a second link that may be used to forward the packet flow, wherein the second link is a link that is not in a congested state after available bandwidth of the link is occupied by the packet flow, and the second link is a link between the first forwarding node and a second forwarding node; selecting, by the network device, a first hash factor corresponding to the second link; determining, by the network device, that a third link is not in a congested state after available bandwidth of the third link is occupied by the packet flow, wherein the third link is a link that is on the second forwarding node and that is corresponding to the first hash factor, and the third link is a link between the second forwarding node and a third forwarding node; and saving, by the network device, the first hash factor in a source node of the packet flow.
A medical device, comprising: an elongate member having a lumen extending at least partially between a proximal end and a distal end of the elongate member; a plurality of legs coupled to a distal portion of the elongate member; a distal end piece connected to each of the plurality of legs and located distally to the distal end of the elongate member; an actuating member (22; 602) coupled to the distal end piece and extending between the plurality of legs and through the lumen, wherein reciprocal movement of the actuating member (22; 602) is configured to reversibly move the plurality of legs from a first, radially-collapsed, position to a second, radially expanded, position; and characterised in comprising a stopping member coupled to the actuating member (22; 602) and configured to limit a movement of the actuating member (22; 602), wherein the stopping member is disposed proximal to the plurality of legs; wherein, when the plurality of legs are in the first position, application of a proximal force to the actuating member (22; 602) below a predetermined limit, moves the plurality of legs toward the second position; and wherein, after the plurality of legs have been moved from the first position toward the second position, application of a proximal force to the actuating member (22; 602) above the predetermined limit, expands the stopping member to prevent further radial expansion of the plurality of legs. an elongate member having a lumen extending at least partially between a proximal end and a distal end of the elongate member; a plurality of legs coupled to a distal portion of the elongate member; a distal end piece connected to each of the plurality of legs and located distally to the distal end of the elongate member; an actuating member (22; 602) coupled to the distal end piece and extending between the plurality of legs and through the lumen, wherein reciprocal movement of the actuating member (22; 602) is configured to reversibly move the plurality of legs from a first, radially-collapsed, position to a second, radially expanded, position; and a stopping member coupled to the actuating member (22; 602) and configured to limit a movement of the actuating member (22; 602), wherein the stopping member is disposed proximal to the plurality of legs; wherein, when the plurality of legs are in the first position, application of a proximal force to the actuating member (22; 602) below a predetermined limit, moves the plurality of legs toward the second position; and wherein, after the plurality of legs have been moved from the first position toward the second position, application of a proximal force to the actuating member (22; 602) above the predetermined limit, expands the stopping member to prevent further radial expansion of the plurality of legs.
A combine harvester comprising an unloading conveyor arrangement, the unloading conveyor arrangement comprising: a conveyor having a discharge end an adjustable spout at said discharge end of said conveyor; a sensor (104, 106, 108, 110, 112) issuing a signal indicative of a factor that can impact flow of a material out of said conveyor discharge end; and a microprocessor receiving said signal and determining a range for an operating condition of said conveyor based on said factor, and issuing a response if an actual value of said operating condition is outside of said range, wherein said microprocessor determines an operating range for adjustment of said spout based on said factor, and issues a response if an actual position of said spout is outside of said range, characterized in that said response comprises dithering or vibrating the spout in order to increase said range. a conveyor having a discharge end an adjustable spout at said discharge end of said conveyor; a sensor (104, 106, 108, 110, 112) issuing a signal indicative of a factor that can impact flow of a material out of said conveyor discharge end; and a microprocessor receiving said signal and determining a range for an operating condition of said conveyor based on said factor, and issuing a response if an actual value of said operating condition is outside of said range, wherein said microprocessor determines an operating range for adjustment of said spout based on said factor, and issues a response if an actual position of said spout is outside of said range, characterized in that said response comprises dithering or vibrating the spout in order to increase said range.
A method performed by a master node for handling communication of a wireless device in a wireless network, the method comprising: transmitting, to a secondary node, SN, a message before initiating a SN change procedure, which message indicates that an SN change is pending and as such the SN should not perform either a secondary cell group, SCG, reconfiguration or trigger any SN triggered procedures.
A medical device in combination with an optical reading device comprising at least one sensor (1.4), a meter display (1.2) for displaying a plurality of independently controllable display elements (1.2.2) and a meter control unit (1.1) adapted for controlling the meter display (1.2) so that at least one measurement value measured by the sensor (1.4) and/or data derived thereof is encoded in an optical machine-readable signal (4, 4a, 4b, 4c, 4d), wherein the optical reading device is adapted to read the optical machine-readable signal (4, 4a, 4b, 4c, 4d) from the medical device, to decode the optical machine-readable signal (4, 4a, 4b, 4c, 4d), and to generate a message corresponding to the decoded optical machine-readable signal (4, 4a, 4b, 4c, 4d), characterised in that the meter control unit (1.1) and/or the meter display (1.2) are adapted to form the optical machine-readable signal (4, 4a, 4b, 4c, 4d) as a variation of the colour of at least one segment (4.1, 4.2, 4.3, 4.4, 4.5) of adjacent pixels (1.2.2) over time.
A method of installing an overhead door by the steps of: a. securing profiles (3-1, 3-2, 3-3, 3-4, 3-5) on either side of the door, each provided with a pre-tensioned spring packet, b. arranging movable door panels (1-1, 1-2, 1-3, 1-4) which are pivotally attached to each other between said profiles (3-1, 3-2, 3-3, 3-4, 3-5), c. coupling the spring packets which are already subjected to a tensile stress to the door panels (1-1, 1-2, 1-3, 1-4), wherein - the door panels (1-1, 1-2, 1-3, 1-4) rest on a rope frame engaging, with the spring packets, on either side of a removable locking element, wherein the spring packets which are subjected to a tensile stress and the interconnected door panels are coupled by removing said locking elements, and wherein - the step of removing the locking elements from the profiles (3-1, 3-2, 3-3, 3-4, 3-5) is carried out when the forces exerted by the spring packets and the interconnected door panels (1-1, 1-2, 1-3, 1-4) at the location of the locking element substantially balance each other out; d. moving the door panels (1-1, 1-2, 1-3, 1-4) upwards by means of the slackening spring packets. a. securing profiles (3-1, 3-2, 3-3, 3-4, 3-5) on either side of the door, each provided with a pre-tensioned spring packet, b. arranging movable door panels (1-1, 1-2, 1-3, 1-4) which are pivotally attached to each other between said profiles (3-1, 3-2, 3-3, 3-4, 3-5), c. coupling the spring packets which are already subjected to a tensile stress to the door panels (1-1, 1-2, 1-3, 1-4), wherein - the door panels (1-1, 1-2, 1-3, 1-4) rest on a rope frame engaging, with the spring packets, on either side of a removable locking element, wherein the spring packets which are subjected to a tensile stress and the interconnected door panels are coupled by removing said locking elements, and wherein - the step of removing the locking elements from the profiles (3-1, 3-2, 3-3, 3-4, 3-5) is carried out when the forces exerted by the spring packets and the interconnected door panels (1-1, 1-2, 1-3, 1-4) at the location of the locking element substantially balance each other out; - the door panels (1-1, 1-2, 1-3, 1-4) rest on a rope frame engaging, with the spring packets, on either side of a removable locking element, wherein the spring packets which are subjected to a tensile stress and the interconnected door panels are coupled by removing said locking elements, and wherein - the step of removing the locking elements from the profiles (3-1, 3-2, 3-3, 3-4, 3-5) is carried out when the forces exerted by the spring packets and the interconnected door panels (1-1, 1-2, 1-3, 1-4) at the location of the locking element substantially balance each other out; d. moving the door panels (1-1, 1-2, 1-3, 1-4) upwards by means of the slackening spring packets.
Modular multilevel converter having submodules (1_1 to 6_n) that each have at least two electronic switching elements (202, 206), an electrical energy store, two electrical connections (212, 215), an optical communication input and an optical communication output, wherein a plurality of the submodules (1_1 to 1_n) are connected by means of their communication input and their communication output to perform a series circuit, characterized in that - at least one submodule has an optical bypass device which at least intermittently optically connects the optical communication input of the submodule to the optical communication output of the submodule. - at least one submodule has an optical bypass device which at least intermittently optically connects the optical communication input of the submodule to the optical communication output of the submodule.