mhurhangee/ep-ind-claims huggingface dataset:
A method for spreading and carrying cloth (a, b), the method comprising the steps of: carrying the cloth (a, b) upward by an inserting device while grasping the cloth (a, b) at both corner regions on one side thereof; receiving the cloth (a, b) from the inserting device by a transverse chuck and carrying the cloth (a, b) to a center position along a first rail disposed to lie in the right-to-left direction; receiving the cloth (a, b) from the transverse chuck by a delivery device and delivering the cloth (a, b) to a spreading device; laterally spreading the cloth (a, b) received from the delivery device by the spreading device, which is formed of a pair of chucks movable along a second rail disposed to lie in the right-to-left direction, by separating the pair of chucks away from each other; spreading the laterally spread cloth (a, b) in the vertical direction by an air suction device; receiving the cloth (a, b) from the spreading device by the horizontally moving device and delivering the cloth (a, b) to a carrying device; and carrying the cloth (a, b) to a next process by the carrying device. carrying the cloth (a, b) upward by an inserting device while grasping the cloth (a, b) at both corner regions on one side thereof; receiving the cloth (a, b) from the inserting device by a transverse chuck and carrying the cloth (a, b) to a center position along a first rail disposed to lie in the right-to-left direction; receiving the cloth (a, b) from the transverse chuck by a delivery device and delivering the cloth (a, b) to a spreading device; laterally spreading the cloth (a, b) received from the delivery device by the spreading device, which is formed of a pair of chucks movable along a second rail disposed to lie in the right-to-left direction, by separating the pair of chucks away from each other; spreading the laterally spread cloth (a, b) in the vertical direction by an air suction device; receiving the cloth (a, b) from the spreading device by the horizontally moving device and delivering the cloth (a, b) to a carrying device; and carrying the cloth (a, b) to a next process by the carrying device.
A method for differential protection of a three phase electric connection of an electric system, the method comprising: determining a value of an operate quantity which operate quantity is based on a difference between current quantities at a first point and a second point of the electric connection; and detecting a fault in the electric connection between the first point and the second point if the value of the operate quantity exceeds a value of a predetermined threshold quantity, characterized in that the operate quantity I OP is defined by the following equation: I OP = | d 3 I ̅ 0 | ⋅ gain = | 3 I ̅ 0 L + 3 I ̅ 0 R | ⋅ gain, where d3 I 0 = residual differential current phasor 3 I 0L = residual current phasor at the first point such that a positive current flow is towards the second point 3 I 0R = residual current phasor at the second point such that a positive current flow is towards the first point gain = cos(angle(- U 0 / d3 I 0)- φ b), where φ b = characteristic angle setting U 0 = residual voltage phasor of the electric connection. determining a value of an operate quantity which operate quantity is based on a difference between current quantities at a first point and a second point of the electric connection; and detecting a fault in the electric connection between the first point and the second point if the value of the operate quantity exceeds a value of a predetermined threshold quantity, characterized in that the operate quantity I OP is defined by the following equation: I OP = | d 3 I ̅ 0 | ⋅ gain = | 3 I ̅ 0 L + 3 I ̅ 0 R | ⋅ gain, where d3 I 0 = residual differential current phasor 3 I 0L = residual current phasor at the first point such that a positive current flow is towards the second point 3 I 0R = residual current phasor at the second point such that a positive current flow is towards the first point gain = cos(angle(- U 0 / d3 I 0)- φ b), where φ b = characteristic angle setting U 0 = residual voltage phasor of the electric connection. d3 I 0 = residual differential current phasor 3 I 0L = residual current phasor at the first point such that a positive current flow is towards the second point 3 I 0R = residual current phasor at the second point such that a positive current flow is towards the first point gain = cos(angle(- U 0 / d3 I 0)- φ b), where φ b = characteristic angle setting U 0 = residual voltage phasor of the electric connection.
A computing device for network power management, the computing device comprising: a power state manager to determine whether to trigger a network power down state; and a network power manager to (i) advertise an active-to-network-power-down transition state to a local network in response to a determination to trigger the network power down state, (ii) determine whether any peer device of the local network rejected or aborted the network power down state within a predetermined rejection time period in response to advertisement of the active-to-network-power-down transition state, (iii) advertise the network power down state to the local network in response to a determination that no peer device rejected or aborted the network power down state, (iv) determine whether any peer device of the local network rejected the network power down state within a predetermined propagation time period in response to advertisement of the network power down state, and (vi) enter the network power down state in response to a determination that no peer device rejected the network power down state. a power state manager to determine whether to trigger a network power down state; and a network power manager to (i) advertise an active-to-network-power-down transition state to a local network in response to a determination to trigger the network power down state, (ii) determine whether any peer device of the local network rejected or aborted the network power down state within a predetermined rejection time period in response to advertisement of the active-to-network-power-down transition state, (iii) advertise the network power down state to the local network in response to a determination that no peer device rejected or aborted the network power down state, (iv) determine whether any peer device of the local network rejected the network power down state within a predetermined propagation time period in response to advertisement of the network power down state, and (vi) enter the network power down state in response to a determination that no peer device rejected the network power down state.
A method of recording a medicament dose using a wearable electronic data collection device, comprising: capturing, by a video camera of the data collection device, a video showing a medicament dose indicator of a medicament delivery device; adjusting a scale of an image in said video depending upon the distance between the medicament delivery device and the video camera; adjusting said image for skew of one or more characters displayed on a component of the medicament delivery device in said video; determining the position of at least one of said one or more characters in the image; identifying the at least one character using optical character recognition; and determining a medicament dose indicated by the medicament dose indicator based on a result of said optical character recognition. capturing, by a video camera of the data collection device, a video showing a medicament dose indicator of a medicament delivery device; adjusting a scale of an image in said video depending upon the distance between the medicament delivery device and the video camera; adjusting said image for skew of one or more characters displayed on a component of the medicament delivery device in said video; determining the position of at least one of said one or more characters in the image; identifying the at least one character using optical character recognition; and determining a medicament dose indicated by the medicament dose indicator based on a result of said optical character recognition.
A process of sustainable virgin-olive-oil production using whole olive fruit constituents and eliminating waste water, pomace and alpeorujo as associated waste byproducts, wherein the sustainable process is a sequential industrial process that produces final products, which comprise "pure distilled water", dehydrated-solid and virgin olive-oil or purified virgin olive-oil and mucilage, the sustainable process comprises the following steps: • washing of whole olive fruit by the produced "pure distilled water"; • dehydrating the washed olive fruit by evaporating vegetation water; • condensing vegetation water vapor to produce "pure distilled water"; • simultaneous grinding and malaxation; kneading and mixing of dehydrated olive fruit to produce a dehydrated olive paste; • press-filtering the dehydrated olive paste to produce a dehydrated solid, and virgin olive oil; and • Centrifuging the virgin olive oil to produce purified virgin olive oil and mucilage. • washing of whole olive fruit by the produced "pure distilled water"; • dehydrating the washed olive fruit by evaporating vegetation water; • condensing vegetation water vapor to produce "pure distilled water"; • simultaneous grinding and malaxation; kneading and mixing of dehydrated olive fruit to produce a dehydrated olive paste; • press-filtering the dehydrated olive paste to produce a dehydrated solid, and virgin olive oil; and • Centrifuging the virgin olive oil to produce purified virgin olive oil and mucilage.
A method of transmitting a device to device, D2D, synchronization signal by a D2D user equipment, UE, in wireless communication system, the method comprising: generating, by a Device to device, D2D, user equipment, UE, a primary D2D synchronization signal based on an ID information, wherein the ID information informs a D2D signal reception UE of whether the D2D UE is an in-coverage UE or an out-of-coverage UE; and transmitting, by the D2D UE, the primary D2D synchronization signal, wherein the primary D2D synchronization signal is transmitted on a same subframe as a secondary D2D synchronization signal and a Physical Sidelink Broadcast Channel, PSBCH, and wherein a transient period between the PSBCH and the secondary D2D synchronization signal is included in a transmission region of the secondary D2D synchronization signal. generating, by a Device to device, D2D, user equipment, UE, a primary D2D synchronization signal based on an ID information, wherein the ID information informs a D2D signal reception UE of whether the D2D UE is an in-coverage UE or an out-of-coverage UE; and transmitting, by the D2D UE, the primary D2D synchronization signal, wherein the primary D2D synchronization signal is transmitted on a same subframe as a secondary D2D synchronization signal and a Physical Sidelink Broadcast Channel, PSBCH, and wherein a transient period between the PSBCH and the secondary D2D synchronization signal is included in a transmission region of the secondary D2D synchronization signal.
A solution mixer comprising: a main flow path in which a solution circulates; a first solution introduction flow path connected to the main flow path; a second solution introduction flow path connected to the main flow path; first and second introduction flow path valves (43a, 43b) for opening and closing the solution introduction flow paths; at least one solution discharge flow path having a solution discharge flow path valve and being connected to the main flow path, wherein the main flow path has a first main flow path valve disposed in the vicinity of the solution discharge flow path, and wherein the main flow path has a second main flow path valve characterized in that the second main flow path valve is disposed between the first solution introduction flow path and the second solution introduction flow path. a main flow path in which a solution circulates; a first solution introduction flow path connected to the main flow path; a second solution introduction flow path connected to the main flow path; first and second introduction flow path valves (43a, 43b) for opening and closing the solution introduction flow paths; at least one solution discharge flow path having a solution discharge flow path valve and being connected to the main flow path, wherein the main flow path has a first main flow path valve disposed in the vicinity of the solution discharge flow path, and wherein the main flow path has a second main flow path valve characterized in that the second main flow path valve is disposed between the first solution introduction flow path and the second solution introduction flow path.
Method for producing a ball joint and/or a chassis component, in the case of which method a joint ball is produced, in the case of which method the joint ball is inserted into an injection moulding die, in the case of which method the joint ball is overmoulded partially with a plastic material, and in the case of which method the plastic material is cured in order to configure an injection-moulded joint housing for the joint ball, characterized in that, in order to configure the joint housing, the joint ball is used without a joint pin, the joint ball having in each case one pole face (3, 4) on two sides which face away from one another.
Fireproof clothing comprising a fireproof fabric comprising a flame retardant polyetherimide fiber and another flame-retardant fiber, the fabric is a woven fabric formed from a uniformly blended spun yarn comprising 75 to 95 mass% of the polyetherimide fiber and 5 to 25 mass% of the other flame-retardantfiber, the fabric is an inner liner of a honeycomb weave texture, the inner liner of the fireproof clothing being arranged on the side of a torso-covering fabric closest to a body, the polyetherimide fiber is dyed with a disperse dye, and the fireproof fabric has flame resistance, heat resistance and wash resistance under ISO 11613-1999 as the international performance standards for fireproof clothing: flame resistance to be free from hole formation, dripping and melting; and to have afterflame time and afterglow time of not more than 2 seconds; heat resistance to be free from firing, separation, dripping and melting; and to have a shrinkage rate of not more than 5%; and washing resistance to have a shrinkage rate of not more than 3%. flame resistance to be free from hole formation, dripping and melting; and to have afterflame time and afterglow time of not more than 2 seconds; heat resistance to be free from firing, separation, dripping and melting; and to have a shrinkage rate of not more than 5%; and washing resistance to have a shrinkage rate of not more than 3%.
A wearable electronic device comprising: an input module configured to receive a user manipulation for changing a configuration setting value, said configuration setting value being shareable between a main electronic device and the wearable electronic device; a communication module configured to communicate with the main electronic device; and a control module configured to: transmit, via the communication module, a signal corresponding to the changed configuration setting value of the wearable electronic device to the main electronic device; receive, via the communication module, a signal corresponding to the configuration setting value of the main electronic device from the main electronic device; and change the configuration setting value of the wearable electronic device to the most recently changed configuration setting value among the configuration setting value of the wearable electronic device and the configuration setting value of the main electronic device if the configuration setting value of the wearable electronic device is different from the configuration setting value received from the main electronic device. an input module configured to receive a user manipulation for changing a configuration setting value, said configuration setting value being shareable between a main electronic device and the wearable electronic device; a communication module configured to communicate with the main electronic device; and a control module configured to: transmit, via the communication module, a signal corresponding to the changed configuration setting value of the wearable electronic device to the main electronic device; receive, via the communication module, a signal corresponding to the configuration setting value of the main electronic device from the main electronic device; and change the configuration setting value of the wearable electronic device to the most recently changed configuration setting value among the configuration setting value of the wearable electronic device and the configuration setting value of the main electronic device if the configuration setting value of the wearable electronic device is different from the configuration setting value received from the main electronic device. transmit, via the communication module, a signal corresponding to the changed configuration setting value of the wearable electronic device to the main electronic device; receive, via the communication module, a signal corresponding to the configuration setting value of the main electronic device from the main electronic device; and change the configuration setting value of the wearable electronic device to the most recently changed configuration setting value among the configuration setting value of the wearable electronic device and the configuration setting value of the main electronic device if the configuration setting value of the wearable electronic device is different from the configuration setting value received from the main electronic device.
Apparatus for target detection from a borehole being drilled, comprising: a drill string having multiple drill pipe sections connected end to end and carrying a drill bit; at least one of said drill pipe sections being electrically conductive to provide a drill pipe electrode section; at least one electrically insulating drill pipe sub electrically isolating said electrode section from adjacent drill pipe sections; a power supply in electrical communication with said at least one drill pipe electrode section and energizable to inject a time varying current into Earth formations surrounding said borehole to cause current flow in a target; an alternating electromagnetic dipole source in said drill string whose magnetic axis is substantially perpendicular to said drill string, for producing an auxiliary magnetic field; a sensor instrument at said drill bit for detecting magnetic fields produced by said target current flow and by said dipole source to determine the rotational orientation of the direction of drilling with respect to the direction to said target; and communication electronics located in said drill string for establishing communication between said sensor instrument and surface instrumentation for sending data to said surface instrumentation. a drill string having multiple drill pipe sections connected end to end and carrying a drill bit; at least one of said drill pipe sections being electrically conductive to provide a drill pipe electrode section; at least one electrically insulating drill pipe sub electrically isolating said electrode section from adjacent drill pipe sections; a power supply in electrical communication with said at least one drill pipe electrode section and energizable to inject a time varying current into Earth formations surrounding said borehole to cause current flow in a target; an alternating electromagnetic dipole source in said drill string whose magnetic axis is substantially perpendicular to said drill string, for producing an auxiliary magnetic field; a sensor instrument at said drill bit for detecting magnetic fields produced by said target current flow and by said dipole source to determine the rotational orientation of the direction of drilling with respect to the direction to said target; and communication electronics located in said drill string for establishing communication between said sensor instrument and surface instrumentation for sending data to said surface instrumentation.
A monolithic separation membrane structure comprising a porous monolithic substrate including a first end surface, a second end surface and a plurality of through-holes respectively passing from the first end surface to the second end surface; and a separation membrane formed on an inner surface of the respective plurality of through-holes; wherein the separation membrane is configured from an inorganic material which is selected from zeolite, carbon and silica, a surface roughness Ra of the separation membrane is no more than 1 micrometer, wherein the surface roughness Ra of the separation membrane is measured using a contact measurement device in accordance with the measurement method for the arithmetic mean roughness Ra described in JIS B0601; a thickness of the separation membrane is no more than 5 micrometers, the monolithic substrate includes an extrusion material layer and a support layer disposed between the extrusion material layer and the separation membrane, an average particle diameter of a porous material configuring the support layer is smaller than an average particle diameter of a porous material configuring the extrusion material layer, and a surface roughness Ra of the support layer is no more than 1.0 micrometer, wherein the surface roughness Ra of the support layer is measured using a surface curve within a range of 25 micrometers obtained using SEM. a porous monolithic substrate including a first end surface, a second end surface and a plurality of through-holes respectively passing from the first end surface to the second end surface; and a separation membrane formed on an inner surface of the respective plurality of through-holes; wherein the separation membrane is configured from an inorganic material which is selected from zeolite, carbon and silica, a surface roughness Ra of the separation membrane is no more than 1 micrometer, wherein the surface roughness Ra of the separation membrane is measured using a contact measurement device in accordance with the measurement method for the arithmetic mean roughness Ra described in JIS B0601; a thickness of the separation membrane is no more than 5 micrometers, the monolithic substrate includes an extrusion material layer and a support layer disposed between the extrusion material layer and the separation membrane, an average particle diameter of a porous material configuring the support layer is smaller than an average particle diameter of a porous material configuring the extrusion material layer, and a surface roughness Ra of the support layer is no more than 1.0 micrometer, wherein the surface roughness Ra of the support layer is measured using a surface curve within a range of 25 micrometers obtained using SEM.