mhurhangee/ep-ind-claims huggingface dataset:
A method for optimizing component type allocation in which multiple component types of components are optimally allocated to an automatic feeder device which has an automatic loading function of automatically loading a component storage tape (85, 86) if the component storage tape (85, 86) in which the components are respectively stored in multiple component storage sections is inserted, and a manual feeder device which does not have the automatic loading function, when the automatic feeder device, the manual feeder device, and a reel holding device which rotatably holds a component supply reel (81, 82) around which the component storage tape (85, 86) is wound are installed in multiple installation positions (SL1-SL9) which are set to be arrayed on a common pallet equipped on a component mounting machine, the method comprising: a workability evaluating step of evaluating a magnitude of labor in splicing work for replenishing and connecting a new component storage tape (85, 86) for each component type (PA, PB, PC) of the component when there is no component stored in the component storage tape (85, 86) loaded in the manual feeder device; and an automatic side allocating step of preferentially allocating the component type (PB, PA) having large labor in the splicing work to the automatic feeder device. a workability evaluating step of evaluating a magnitude of labor in splicing work for replenishing and connecting a new component storage tape (85, 86) for each component type (PA, PB, PC) of the component when there is no component stored in the component storage tape (85, 86) loaded in the manual feeder device; and an automatic side allocating step of preferentially allocating the component type (PB, PA) having large labor in the splicing work to the automatic feeder device.
A compression bag having an upper portion for applying a pressure at least to the abdominal area of a patient, and a lower portion for applying a pressure to at least a part of the patient's legs, the bag comprising: - a back part, a second, front part and a closure means configured for detachably attaching the parts to each other; - a separating insert configured for being detachably attached to at least one of the back and front parts of the bag, at least at the lower portion of the bag, to separate between left and right regions of the first and second parts, thereby forming pants in said bag defined by said regions and said insert; and - a plurality of inflatable cells in the first and second parts of the bag and in the separating insert, that are sealingly separated from adjacent inflatable cells and configured to be individually inflated and deflated. - a back part, a second, front part and a closure means configured for detachably attaching the parts to each other; - a separating insert configured for being detachably attached to at least one of the back and front parts of the bag, at least at the lower portion of the bag, to separate between left and right regions of the first and second parts, thereby forming pants in said bag defined by said regions and said insert; and - a plurality of inflatable cells in the first and second parts of the bag and in the separating insert, that are sealingly separated from adjacent inflatable cells and configured to be individually inflated and deflated.
Composite particles comprising: composite particles containing carbon and silicon; and amorphous layers coating surfaces thereof, wherein: the composite particles have I Si /I G of 0.10 or more and 0.65 or less, and have R value I D /I G of 1.00 or more and 1.30 or less, when a peak due to silicon is present at 450 to 495 cm -1, an intensity of the peak is defined as I Si, an intensity of a G band, which is the peak intensity in the vicinity of 1600 cm -1, is defined as I G, and an intensity of a D band, which is the peak intensity in the vicinity of 1360 cm -1, is defined as I D in a Raman spectrum, and wherein the composite particles have a full width at half maximum of a peak of a 111 plane of Si of 3.0 deg. or more using a Cu-Ka ray in an XRD pattern. composite particles containing carbon and silicon; and amorphous layers coating surfaces thereof, the composite particles have I Si /I G of 0.10 or more and 0.65 or less, and have R value I D /I G of 1.00 or more and 1.30 or less, when a peak due to silicon is present at 450 to 495 cm -1, an intensity of the peak is defined as I Si, an intensity of a G band, which is the peak intensity in the vicinity of 1600 cm -1, is defined as I G, and an intensity of a D band, which is the peak intensity in the vicinity of 1360 cm -1, is defined as I D in a Raman spectrum, and wherein the composite particles have a full width at half maximum of a peak of a 111 plane of Si of 3.0 deg. or more using a Cu-Ka ray in an XRD pattern.
A component for a gas turbine engine, comprising: a body portion; a cooling circuit disposed within said body portion and including at least a first cavity, a microcircuit in fluid communication with said first cavity; and a second cavity adjacent to said first cavity; a plunged hole that has an outlet extending through the exterior surface, and that intersects at least a portion of said microcircuit; a portion of said plunged hole extending past said microcircuit and characterized in that said second cavity includes a bulged portion and said plunged hole extends into said bulged portion without piercing said second cavity. a body portion; a cooling circuit disposed within said body portion and including at least a first cavity, a microcircuit in fluid communication with said first cavity; and a second cavity adjacent to said first cavity; a plunged hole that has an outlet extending through the exterior surface, and that intersects at least a portion of said microcircuit; a portion of said plunged hole extending past said microcircuit and characterized in that said second cavity includes a bulged portion and said plunged hole extends into said bulged portion without piercing said second cavity.
Slag door for a melting furnace for the production of steel, suitable to be associated with an aperture provided in a lateral wall of the melting furnace and to cooperate with a slag channel provided inside the melting furnace itself, comprising: - a frame on which a sliding closing panel is mounted, configured to selectively assume a lowered position to close said slag channel, in which a lower part of the closing panel substantially abuts on a base surface of the slag channel and a raised position to open said slag channel in which the closing panel is partly or completely raised; - a slag removal device, mounted on said frame and mobile with respect to it, provided at least with a cleaning arm and having at its end a cleaning element configured to be moved inside the slag channel when the closing panel is in the raised position; said slag removal device having a working operating position, when the sliding closing panel is located in the raised opening position, in which the cleaning element moves until it penetrates through the aperture of the melting furnace along the slag channel and exerts its cleaning and descaling action of the slag present in said slag channel, and an inactive operating position in which it is raised and outside the bulk of said aperture of the melting furnace, and wherein the connection between the slag removal device and the frame is of the hinge type, characterised in that the slag removal device is provided with a movement arm hinged with a first end thereof to the frame and with a second end thereof to the cleaning arm, thus defining a double articulation arm. - a frame on which a sliding closing panel is mounted, configured to selectively assume a lowered position to close said slag channel, in which a lower part of the closing panel substantially abuts on a base surface of the slag channel and a raised position to open said slag channel in which the closing panel is partly or completely raised; - a slag removal device, mounted on said frame and mobile with respect to it, provided at least with a cleaning arm and having at its end a cleaning element configured to be moved inside the slag channel when the closing panel is in the raised position; said slag removal device having a working operating position, when the sliding closing panel is located in the raised opening position, in which the cleaning element moves until it penetrates through the aperture of the melting furnace along the slag channel and exerts its cleaning and descaling action of the slag present in said slag channel, and an inactive operating position in which it is raised and outside the bulk of said aperture of the melting furnace, and
A refrigerant distribution unit for an air conditioner, comprising: a pipe unit for distributing a refrigerant from a refrigerant pipe provided on an outdoor unit to a plurality of branch refrigerant pipes respectively provided on a plurality of indoor units (12, 13, 14) and a main body including: an upper seal case and a lower seal case which include first edge portions in a periphery of the upper seal case and second edge portions in a periphery of the lower seal case, and engage the second edge portions with the first edge portions for sealing an inside of the first and second seal cases to store the pipe unit; an upper insulator case and a lower insulator case for covering the upper seal case and the lower seal case respectively; and an upper case and a lower case respectively constituting a contour of the refrigerant distribution unit, wherein the upper seal case includes a pipe mounting portion in which a contact face with the pipe unit is extended from the first edge portions, characterised in that the pipe unit is fixed to the pipe mounting portion using a pipe holder and a pipe hanging bracket, and in that an upper portion of the pipe hanging bracket is fixed to the upper case, and a lower portion of the pipe hanging bracket is extended to a lower end of the pipe holder. a pipe unit for distributing a refrigerant from a refrigerant pipe provided on an outdoor unit to a plurality of branch refrigerant pipes respectively provided on a plurality of indoor units (12, 13, 14) and a main body including: an upper seal case and a lower seal case which include first edge portions in a periphery of the upper seal case and second edge portions in a periphery of the lower seal case, and engage the second edge portions with the first edge portions for sealing an inside of the first and second seal cases to store the pipe unit; an upper insulator case and a lower insulator case for covering the upper seal case and the lower seal case respectively; and an upper case and a lower case respectively constituting a contour of the refrigerant distribution unit, an upper seal case and a lower seal case which include first edge portions in a periphery of the upper seal case and second edge portions in a periphery of the lower seal case, and engage the second edge portions with the first edge portions for sealing an inside of the first and second seal cases to store the pipe unit; an upper insulator case and a lower insulator case for covering the upper seal case and the lower seal case respectively; and an upper case and a lower case respectively constituting a contour of the refrigerant distribution unit, wherein the upper seal case includes a pipe mounting portion in which a contact face with the pipe unit is extended from the first edge portions, characterised in that the pipe unit is fixed to the pipe mounting portion using a pipe holder and a pipe hanging bracket, and in that an upper portion of the pipe hanging bracket is fixed to the upper case, and a lower portion of the pipe hanging bracket is extended to a lower end of the pipe holder.
A gripping device configured to be detachably attached to a robot, wherein said gripping device comprises one or more extremities (10, 10') provided with one or more suction members (12, 12') connected to a vacuum source, wherein at least one of the one or more extremities (10, 10') is rotatably arranged, wherein at least one of the one or more extremities (10, 10') is configured to be rotated manually without using an actuator, wherein the gripping device comprises a body portion to which the extremities (10, 10') are moveably attached in such a manner that the friction between the engaging structures of the extremities (10, 10') and the corresponding structures of the body portion has a magnitude sufficiently large to ensure that the extremities (10, 10') cannot move relative to the body portion of the gripping device when an object (58, 60) is being handled by the gripping device, characterised in that one or more of the extremities (10, 10') is/are provided with multiple inlets (18, 18') for providing the suction members in different positions.
Assembly comprising a vase made of transparent glass and a device for illumination of said vase, said illumination device comprising light sources powered by electric power supply means, said electric power supply means being disposed in a case having a generally cylindrical shape, a housing having a corresponding shape for the reception of said case being provided in the bottom of the vase, formed at the outer wall of said vase, said case being integrated into said housing, the diameter of the upper opening of the vase being greater than the diameter of said housing, characterised in that a flexible joint, compressed between said case and the wall of said housing, ensures the retention and the blocking of said case in the housing and in that the vase consists of a body of revolution, the wall of which has a constant thickness, said bottom wall of said vase being deformed towards the interior of said vase in order to form said housing, said housing protruding into the inner volume of said vase, said vase being made via blowing, said housing being obtained during the blowing of the glass by turning the glass.
A method for applying a non-magnetic, abrasive, wear-resistant hardfacing material to a surface of a drill string member, comprising: providing a non-magnetic drill string member formed of a non-magnetic material, the drill string member having an outer surface; disposing a non-magnetic intermediate material on the outer surface of the drill string member, the intermediate material having an outer surface away from the drill string member; providing a non-magnetic hardfacing precursor material comprising a plurality of non-magnetic, sintered carbide pellets (56, 58) and a non-magnetic matrix material; heating a portion of the non-magnetic hardfacing precursor material to a temperature above the melting point of the matrix material to melt the matrix material; applying the molten non-magnetic matrix material and the plurality of non-magnetic, sintered carbide pellets (56, 58) to the outer surface of the intermediate material; and solidifying the molten non-magnetic matrix material to form a layer of a non-magnetic hardfacing material having a plurality of non-magnetic, sintered carbide pellets (56, 58) dispersed in the hardfacing material and a heat affected zone disposed between and in direct physical contact with the outer surface of the intermediate material and the layer of the non-magnetic hardfacing material, the heat affected zone and the layer of the non-magnetic hardfacing material being spaced from the outer surface of the drill string member. providing a non-magnetic drill string member formed of a non-magnetic material, the drill string member having an outer surface; disposing a non-magnetic intermediate material on the outer surface of the drill string member, the intermediate material having an outer surface away from the drill string member; providing a non-magnetic hardfacing precursor material comprising a plurality of non-magnetic, sintered carbide pellets (56, 58) and a non-magnetic matrix material; heating a portion of the non-magnetic hardfacing precursor material to a temperature above the melting point of the matrix material to melt the matrix material; applying the molten non-magnetic matrix material and the plurality of non-magnetic, sintered carbide pellets (56, 58) to the outer surface of the intermediate material; and solidifying the molten non-magnetic matrix material to form a layer of a non-magnetic hardfacing material having a plurality of non-magnetic, sintered carbide pellets (56, 58) dispersed in the hardfacing material and a heat affected zone disposed between and in direct physical contact with the outer surface of the intermediate material and the layer of the non-magnetic hardfacing material, the heat affected zone and the layer of the non-magnetic hardfacing material being spaced from the outer surface of the drill string member.
A method of communicating between a client in a personal area network and an IP client located external to said PAN, said method characterized by: creating a PAN agent on said PAN for communicating with said clients in said PAN, wherein said PAN agent establishes the presence of said IP client within said PAN; and communicating between said client in said PAN and said IP client through said PAN agent. creating a PAN agent on said PAN for communicating with said clients in said PAN, wherein said PAN agent establishes the presence of said IP client within said PAN; and communicating between said client in said PAN and said IP client through said PAN agent.
An autonomous driving vehicle, comprising at least one processor circuitry arranged to control a lateral position of the autonomous driving vehicle during autonomous driving of the autonomous driving vehicle, and at least one user interface arranged to receive an input indicative of an off-set of the lateral position of the autonomous driving vehicle from a user of the autonomous driving vehicle, wherein the processor circuitry is arranged to receive, from the at least one user interface, information regarding the off-set of the lateral position of the autonomous driving vehicle during driving in the lateral position based on a default lateral position of the autonomous driving vehicle and to adjust the lateral position of the vehicle based on the off-set information, characterized in that the user interface is arranged to communicate a geographical position or a driving scenario of the autonomous driving vehicle to a cloud service and receive, from the cloud service, information indicative of an off-set of the lateral position, wherein the off-set information is based on a plurality of drivers desired lateral positions for the given geographical position or the driving scenario and the processor circuitry is arranged to adjust the lateral position of the autonomous driving vehicle during autonomous driving based on a combination of the default lateral position, the off-set of the lateral position and the off-set information received from the cloud service. at least one processor circuitry arranged to control a lateral position of the autonomous driving vehicle during autonomous driving of the autonomous driving vehicle, and at least one user interface arranged to receive an input indicative of an off-set of the lateral position of the autonomous driving vehicle from a user of the autonomous driving vehicle, wherein the processor circuitry is arranged to receive, from the at least one user interface, information regarding the off-set of the lateral position of the autonomous driving vehicle during driving in the lateral position based on a default lateral position of the autonomous driving vehicle and to adjust the lateral position of the vehicle based on the off-set information, characterized in that the user interface is arranged to communicate a geographical position or a driving scenario of the autonomous driving vehicle to a cloud service and receive, from the cloud service, information indicative of an off-set of the lateral position, wherein the off-set information is based on a plurality of drivers desired lateral positions for the given geographical position or the driving scenario and the processor circuitry is arranged to adjust the lateral position of the autonomous driving vehicle during autonomous driving based on a combination of the default lateral position, the off-set of the lateral position and the off-set information received from the cloud service.
A synthetic cement compatible with oil based mud for cementing wells, comprising: i) a low viscosity monofunctional monomer; which low viscosity monofunctional monomer is a vinyl ester, an acrylate, or methacrylate monomer; ii) a difunctional monomer selected from 1,3-butylene glycol dimethacrylate or a dicyclopentadienyl moiety having an attached moiety susceptible to free radical reaction including acrylate, methacrylate, vinyl, olefinic, allyl, or amide; or a mixture thereof; iii) an unsaturated styrenic block copolymer; and iv) a free radical initiator. i) a low viscosity monofunctional monomer; which low viscosity monofunctional monomer is a vinyl ester, an acrylate, or methacrylate monomer; ii) a difunctional monomer selected from 1,3-butylene glycol dimethacrylate or a dicyclopentadienyl moiety having an attached moiety susceptible to free radical reaction including acrylate, methacrylate, vinyl, olefinic, allyl, or amide; or a mixture thereof; iii) an unsaturated styrenic block copolymer; and iv) a free radical initiator.
A detergent solution, for cleaning a receptacle for milk or liquid milk-derived products, the detergent solution comprising water, one or more types of surfactant and an odour absorbing compound, wherein the total concentration of one or more of the surfactants is from 3% to 15% by weight of the detergent solution, and wherein the odour absorbing compound is Zinc Diricinoleate in a concentration of 0.01% - 2% by weight of the detergent solution, and wherein the one or more surfactants includes C10-16 Alkyl Polyglucoside, Sodium Lauroyl Sarcosinate and Cocamidopropyl Betaine.