mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus comprising: a plasma processing unit that performs plasma processing on a processing target surface side of a processing object; a recording unit that ejects ink on the processing target surface side of the processing object; an acquiring unit that acquires setting information, in which an adjustment target area for adjusting surface roughness and surface roughness of the adjustment target area on a surface of an ink layer formed with the ink are set; and a plasma control unit that controls the plasma processing unit to perform plasma processing on a processing area corresponding to the adjustment target area, on the processing target surface side of the processing object, with an amount of plasma energy for obtaining the set surface roughness on the surface of the ink layer formed on the processing area. a plasma processing unit that performs plasma processing on a processing target surface side of a processing object; a recording unit that ejects ink on the processing target surface side of the processing object; a plasma control unit that controls the plasma processing unit to perform plasma processing on a processing area corresponding to the adjustment target area, on the processing target surface side of the processing object, with an amount of plasma energy for obtaining the set surface roughness on the surface of the ink layer formed on the processing area.
A wing (14,16) for an aircraft, comprising: a composite upper wing skin and a composite lower wing skin, a composite wing grid structure located between each of the upper and lower composite wing skins (22,24), which composite wing grid structure is attached to the upper and lower composite wing skins (22,24), each of the upper and lower composite skins (22,24) is orthotropic and has an interlaminar fracture toughness, and wherein the interlaminar fracture toughness of the upper composite wing skin is less than the interlaminar fracture toughness of the lower composite wing skin, wherein the upper composite wing skin has a stiffness less than the stiffness of the lower composite wing skin. a composite upper wing skin and a composite lower wing skin, a composite wing grid structure located between each of the upper and lower composite wing skins (22,24), which composite wing grid structure is attached to the upper and lower composite wing skins (22,24), each of the upper and lower composite skins (22,24) is orthotropic and has an interlaminar fracture toughness, and wherein the interlaminar fracture toughness of the upper composite wing skin is less than the interlaminar fracture toughness of the lower composite wing skin, wherein the upper composite wing skin has a stiffness less than the stiffness of the lower composite wing skin.
A temperature monitoring apparatus for a battery pack, the temperature monitoring apparatus comprising: a plurality of slave battery management systems (BMSs) (110-1, 110-2... 110-n including a first slave BMS and a second slave BMS; and a master BMS connected to the plurality of slave BMSs to communicate with the plurality of slave BMSs, wherein each of the plurality of slave BMSs is configured to switch from a sleep mode to a wake-up mode when a wake-up time set in advance thereto by the master BMS is reached, to measure a temperature of a battery module set thereto from among a plurality of battery modules included in the battery pack, during a wake-up period that is defined as a period from a latest time point of switching to the wake-up mode to a time point of re-switching to the sleep mode, and to transmit to the master BMS temperature data indicating the temperature measured during the wake-up period, and the master BMS is configured to set a next wake-up time of the second slave BMS based on first temperature data transmitted from the first slave BMS and indicating a temperature of a first battery module from among the plurality of battery modules. a plurality of slave battery management systems (BMSs) (110-1, 110-2... 110-n including a first slave BMS and a second slave BMS; and a master BMS connected to the plurality of slave BMSs to communicate with the plurality of slave BMSs, wherein each of the plurality of slave BMSs is configured to switch from a sleep mode to a wake-up mode when a wake-up time set in advance thereto by the master BMS is reached, to measure a temperature of a battery module set thereto from among a plurality of battery modules included in the battery pack, during a wake-up period that is defined as a period from a latest time point of switching to the wake-up mode to a time point of re-switching to the sleep mode, and to transmit to the master BMS temperature data indicating the temperature measured during the wake-up period, and the master BMS is configured to set a next wake-up time of the second slave BMS based on first temperature data transmitted from the first slave BMS and indicating a temperature of a first battery module from among the plurality of battery modules.
A water purifying system comprising: a valve assembly which includes a valve cover defining an external appearance of the water purifying system and including an inlet and an outlet, and a head member mounted within the valve cover; a filter assembly removably connected to the valve assembly and comprising a filter therein, characterized in that the head member is mounted in a centerhole of the valve cover to be movable between an upper position and a lower position, when the filter assembly is connected to the valve assembly, the filter assembly is configured to linearly advance the head member to said upper position in which a fluid passing through the inlet is passed through the filter and then guided to the outlet, and, when the filter assembly is separated from the valve assembly, the head member is retreated linearly to said lower position, in which the fluid passing through the inlet is guided to the outlet without passing through the filter, said head member forms an inflow path and an outflow path, respectively in fluid communication with the inlet and the outlet and the filter, and a pair of valve units are mounted to the head member to open and close the inflow path and the outflow path, respectively, wherein the head member is adapted to seal a space between an outer surface of the head member and an inner surface of the valve cover by linearly moving in the upper position. a valve assembly which includes a valve cover defining an external appearance of the water purifying system and including an inlet and an outlet, and a head member mounted within the valve cover; a filter assembly removably connected to the valve assembly and comprising a filter therein, characterized in that the head member is mounted in a centerhole of the valve cover to be movable between an upper position and a lower position, when the filter assembly is connected to the valve assembly, the filter assembly is configured to linearly advance the head member to said upper position in which a fluid passing through the inlet is passed through the filter and then guided to the outlet, and, when the filter assembly is separated from the valve assembly, the head member is retreated linearly to said lower position, in which the fluid passing through the inlet is guided to the outlet without passing through the filter, said head member forms an inflow path and an outflow path, respectively in fluid communication with the inlet and the outlet and the filter, and a pair of valve units are mounted to the head member to open and close the inflow path and the outflow path, respectively, wherein the head member is adapted to seal a space between an outer surface of the head member and an inner surface of the valve cover by linearly moving in the upper position.
An information processing apparatus for an ultrasonic diagnostic apparatus comprising: acquisition means for acquiring a first image including at least a part of an inspection device and a second image including at least a part of a subject, the first and the second images being captured by imaging means; first estimation means for estimating a position of the inspection device based on the first image; second estimation means for estimating position and orientation information for the subject based on the second image; region identification means for identifying an inspection region of the subject from a result of the estimation by the first estimation means and a result of the estimation by the second estimation means; and control means for receiving a result finalization instruction input (S703, S1006) which finalizes an inspection result to be recorded or output to an outside, based on inspection results sequentially acquired from inspection device for inspecting the subject, and a region finalization instruction input (S702, S906) which finalizes inspection region information to be recorded or output to the outside in association with the inspection result, based on a plurality of inspection regions by a region identification means, wherein while the inspection results are sequentially acquired from the inspection device, the control means receives the result finalization instruction input after receiving the region finalization instruction input. acquisition means for acquiring a first image including at least a part of an inspection device and a second image including at least a part of a subject, the first and the second images being captured by imaging means; first estimation means for estimating a position of the inspection device based on the first image; second estimation means for estimating position and orientation information for the subject based on the second image; region identification means for identifying an inspection region of the subject from a result of the estimation by the first estimation means and a result of the estimation by the second estimation means; and control means for receiving a result finalization instruction input (S703, S1006) which finalizes an inspection result to be recorded or output to an outside, based on inspection results sequentially acquired from inspection device for inspecting the subject, and a region finalization instruction input (S702, S906) which finalizes inspection region information to be recorded or output to the outside in association with the inspection result, based on a plurality of inspection regions by a region identification means, wherein while the inspection results are sequentially acquired from the inspection device, the control means receives the result finalization instruction input after receiving the region finalization instruction input.
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers (41, 43), each formed of reinforcing elements inserted between two calendering layers of rubber compound, itself being capped radially with a tread, said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements, the tensile modulus of elasticity at 10% elongation of at least one calendering layer of at least one working crown layer (41, 43) being less than 8.5 MPa, the measurement of said modulus being performed under tension according to standard AFNOR-NFT-46002 of September 1988 in normal temperature and relative humidity conditions according to standard AFNOR-NFT-40101 of December 1979, the maximum value of tan(δ), denoted tan(δ)max, of said at least one calendering layer of at least one working crown layer (41, 43) being less than 0.100, the measurement of tan(δ) being performed according to Standard ASTM D 5992-96, said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, characterized in that said tread consists of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one longitudinally-oriented cut, in that the depth, measured on a new tyre in at least said central part, of said at least one longitudinally-oriented cut, is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f) measured at the bottom of said at least one longitudinally-oriented cut to the width (d S) measured at the surface of the tread on a new tyre of said at least one longitudinally-oriented cut is greater than 2.
Flight unit (1a,1b,1c,1d) for a vertical take-off and landing aircraft with several drive units (5,9,10) arranged on a wing assembly, where the wing assembly has, interconnected at node points, longitudinally extended wing assembly struts of which a defined number each has at least one aerofoil-shaped wing that is arranged or designed to be rotatable in a longitudinal section (7,8) of a longitudinally extended wing assembly strut between two node points, where the flight unit is designed to be connectable to a transport unit of the aircraft.
Method for associating a new gathering node in a distributed wireless communication network conforming to one of the IEEE 802.11 standards, comprising at least one gathering node, each gathering node comprising at least one access-point (AP-B) and/or user (ST-B) radio-frequency interface of a so-called gathering wireless network associated with the communication network and an access-point radio-frequency interface (AP-F) of a so-called user wireless network associated with the communication network, a network identifier referred to as a gathering network identifier and a security key referred to as a gathering security key characterising said so-called gathering wireless network, the method being executed by a management node of the communication network and being characterised in that it comprises the steps of: - receiving a message comprising information that a new gathering node is to be associated, - sending (203, 204), to each gathering node in the communication network, a command to activate a so-called association radio-frequency interface, said activation command making it possible to activate a so-called association wireless network different from said gathering wireless network and from said user wireless network, characterised by a predetermined network identifier referred to as an association network identifier, - receiving (207, 208, 209) a message indicating that the new gathering node is associated with an existing gathering node via its so-called association radio-frequency interface, - determining a first validation of association of the new gathering node, - if the association is validated, then sending to the new gathering node information on parameterisings comprising at least information necessary for an association of the new node with the gathering wireless network of the communication network, said information comprising said gathering network identifier and said gathering security key. - receiving a message comprising information that a new gathering node is to be associated, - sending (203, 204), to each gathering node in the communication network, a command to activate a so-called association radio-frequency interface, said activation command making it possible to activate a so-called association wireless network different from said gathering wireless network and from said user wireless network, characterised by a predetermined network identifier referred to as an association network identifier, - receiving (207, 208, 209) a message indicating that the new gathering node is associated with an existing gathering node via its so-called association radio-frequency interface, - determining a first validation of association of the new gathering node, - if the association is validated, then sending to the new gathering node information on parameterisings comprising at least information necessary for an association of the new node with the gathering wireless network of the communication network, said information comprising said gathering network identifier and said gathering security key.
A toothbrush comprising: a toothbrush head defining a longitudinal axis; and a plurality of tooth cleaning elements supported by the toothbrush head, the tooth cleaning elements including at least one tooth polishing unit, the polishing unit having a polishing element including a supporting base and a broadened flexible tooth polishing head extending angularly outwards from the base and defining a polishing surface; wherein the polishing head has a circular shape when viewed in a horizontal plane defined by the toothbrush head; characterised in that the polishing element is comprised of a plurality of inverted L-shaped polishing members each collectively defining part of the supporting base and the polishing head of the polishing element. a toothbrush head defining a longitudinal axis; and a plurality of tooth cleaning elements supported by the toothbrush head, the tooth cleaning elements including at least one tooth polishing unit, the polishing unit having a polishing element including a supporting base and a broadened flexible tooth polishing head extending angularly outwards from the base and defining a polishing surface; wherein the polishing head has a circular shape when viewed in a horizontal plane defined by the toothbrush head; characterised in that the polishing element is comprised of a plurality of inverted L-shaped polishing members each collectively defining part of the supporting base and the polishing head of the polishing element.
A refrigerating apparatus which includes a refrigerant circuit performing a refrigeration cycle by circulating refrigerant, the refrigerant circuit including: a heat source circuit, and a plurality of user side circuits (11, 12, 13) respectively provided with user side heat exchangers (41, 42, 43) and connected in parallel to the heat source side circuit, wherein the heat source side circuit is provided with a compressor, an expander, and a heat source side heat exchanger configured to serve as a condenser during a cooling operation, wherein the expander is configured to receive, in the cooling operation, refrigerant condensed in the heat source side heat exchanger and to expand the refrigerant to be in a gas-liquid two phase state where gas refrigerant and liquid refrigerant are present, the heat source side circuit includes cooling means (36, 45) configured to cooling the refrigerant sent from the expander to the user side circuits (11, 12, 13) in the cooling operation to be in a single liquid state, the user side circuits (11, 12, 13) include opening variable user side expansion valves (51, 52, 53) on upstream sides in the cooling operation of the user side heat exchangers (41, 42, 43), respectively configured to perform an expansion stroke after expansion stroke in the expander to adjust a respective pressure lowering in the user side circuits (11, 12, 13), and the expander is configured to reduce a pressure of the refrigerant to a pressure that allows the user side expansion valves (51, 52, 53) to adjust respective pressure lowering in the user side circuits (11, 12, 13) in the cooling operation. a heat source circuit, and a plurality of user side circuits (11, 12, 13) respectively provided with user side heat exchangers (41, 42, 43) and connected in parallel to the heat source side circuit, wherein the heat source side circuit is provided with a compressor, an expander, and a heat source side heat exchanger configured to serve as a condenser during a cooling operation, wherein the expander is configured to receive, in the cooling operation, refrigerant condensed in the heat source side heat exchanger and to expand the refrigerant to be in a gas-liquid two phase state where gas refrigerant and liquid refrigerant are present, the heat source side circuit includes cooling means (36, 45) configured to cooling the refrigerant sent from the expander to the user side circuits (11, 12, 13) in the cooling operation to be in a single liquid state, the user side circuits (11, 12, 13) include opening variable user side expansion valves (51, 52, 53) on upstream sides in the cooling operation of the user side heat exchangers (41, 42, 43), respectively configured to perform an expansion stroke after expansion stroke in the expander to adjust a respective pressure lowering in the user side circuits (11, 12, 13), and the expander is configured to reduce a pressure of the refrigerant to a pressure that allows the user side expansion valves (51, 52, 53) to adjust respective pressure lowering in the user side circuits (11, 12, 13) in the cooling operation.
Metal-fixing-material passage for igniters of airbags or belt tensioners, in particular metal-glass passage; having at least one metal pin which is arranged in a through hole in the base body in a fixing material, wherein the base body has a front and rear side; the base body is formed by an element; wherein the through-opening has two partial areas, a first partial area on the rear side of the base body and a second partial area on the front side of the base body, and the through-opening has a larger diameter in the region of the rear side (12.9, 12.10) than on the front side (13.9, 13.10), characterized in that between the front side and rear side of the base body means for preventing a relative movement of fixing material in the direction of the rear side in relation to the inner circumference of the through-opening are provided, and the through-opening (11.10) is punched.
A gas turbine engine component comprising: a wall having first and second wall surfaces (102,104); a cooling hole extending through the wall, the cooling hole comprising an inlet located at the first wall surface, an outlet located at the second wall surface, a metering section extending downstream from the inlet and a diffusing section extending from the metering section to the outlet, the diffusing section comprising a first lobe diverging longitudinally and laterally from the metering section and a second lobe adjacent the first lobe and diverging longitudinally and laterally from the metering section; the component further comprising: a convexity located near the outlet and downstream from the outlet; characterized by the component further comprising: an indentation located downstream from the convexity on the second wall surface and downstream from the outlet. a wall having first and second wall surfaces (102,104); a cooling hole extending through the wall, the cooling hole comprising an inlet located at the first wall surface, an outlet located at the second wall surface, a metering section extending downstream from the inlet and a diffusing section extending from the metering section to the outlet, the diffusing section comprising a first lobe diverging longitudinally and laterally from the metering section and a second lobe adjacent the first lobe and diverging longitudinally and laterally from the metering section; the component further comprising: a convexity located near the outlet and downstream from the outlet; characterized by the component further comprising: an indentation located downstream from the convexity on the second wall surface and downstream from the outlet. characterized by the component further comprising: an indentation located downstream from the convexity on the second wall surface and downstream from the outlet. an indentation located downstream from the convexity on the second wall surface and downstream from the outlet.