mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a chip (111, 211) having a plurality of electrode pads provided on its upper surface; a chip fixing resin on which the chip is mounted at its lower surface; a resin package (112, 212) sealing the chip, said resin package having resin projections located on a mount-side, lower surface of the resin package, wherein said resin package is a molded package so that the resin projections are integrally formed with the resin package; metallic films (113, 155, 290A, 290B) respectively provided to cover the resin projections; bonding wires (118, 101, 163, 218, 245, 313) electrically connecting the electrode pads on said upper surface of said chip and the metallic films covering the resin projections; and bonding balls or stud balls respectively provided to the metallic films, wherein each bonding wire has an end connected to a said electrode pad and the other end bonded to a respective said bonding or stud ball so as to bond the bonding wire to a respective said metallic film; wherein said resin projections extend downwards from the mount-side surface and laterally extend from at least one side surface of the resin package. a chip (111, 211) having a plurality of electrode pads provided on its upper surface; a chip fixing resin on which the chip is mounted at its lower surface; a resin package (112, 212) sealing the chip, said resin package having resin projections located on a mount-side, lower surface of the resin package, wherein said resin package is a molded package so that the resin projections are integrally formed with the resin package; metallic films (113, 155, 290A, 290B) respectively provided to cover the resin projections; bonding wires (118, 101, 163, 218, 245, 313) electrically connecting the electrode pads on said upper surface of said chip and the metallic films covering the resin projections; and bonding balls or stud balls respectively provided to the metallic films, wherein each bonding wire has an end connected to a said electrode pad and the other end bonded to a respective said bonding or stud ball so as to bond the bonding wire to a respective said metallic film; wherein said resin projections extend downwards from the mount-side surface and laterally extend from at least one side surface of the resin package.
An information processing system comprising: a state data acquisition device configured to acquire state data indicating an operation state of a plant; a first classification device configured to generate a determination line used to classify the state data; a mirror image data generation device configured to generate mirror image data obtained by mirroring the acquired state data using the generated determination line; and a second classification device configured to generate a determination model on the basis of the state data and the generated mirror image data. a state data acquisition device configured to acquire state data indicating an operation state of a plant; a first classification device configured to generate a determination line used to classify the state data; a mirror image data generation device configured to generate mirror image data obtained by mirroring the acquired state data using the generated determination line; and a second classification device configured to generate a determination model on the basis of the state data and the generated mirror image data.
Process to produce a polypropylene-based composition comprising post-consumer resin characterised in that it comprises the steps of: - providing a component A being a polypropylene post-consumer resin (PCR-PP) having an MI2 ranging from 7 to 70 g/10 min as determined according to ISO 1133 conditions M, at a temperature of 230 °C and under a load of 2.16 kg, wherein component A is a blend of recycled polypropylene and recycled polyethylene, wherein the content of the recycled polyethylene is ranging from 3 to 20 wt% relative to the total weight of component A; - providing a component B being a polypropylene resin having an MI2 ranging from 0.1 to 10.0 g/10 min as determined according to ISO 1133 conditions M, at a temperature of 230 °C and under a load of 2.16 kg; and - melt-blending the components to form a polypropylene-based composition wherein the content of component A in the polypropylene-based composition is ranging from 35 to 80 wt% as based on the total weight of the polypropylene-based composition. - providing a component A being a polypropylene post-consumer resin (PCR-PP) having an MI2 ranging from 7 to 70 g/10 min as determined according to ISO 1133 conditions M, at a temperature of 230 °C and under a load of 2.16 kg, wherein component A is a blend of recycled polypropylene and recycled polyethylene, wherein the content of the recycled polyethylene is ranging from 3 to 20 wt% relative to the total weight of component A; - providing a component B being a polypropylene resin having an MI2 ranging from 0.1 to 10.0 g/10 min as determined according to ISO 1133 conditions M, at a temperature of 230 °C and under a load of 2.16 kg; and - melt-blending the components to form a polypropylene-based composition wherein the content of component A in the polypropylene-based composition is ranging from 35 to 80 wt% as based on the total weight of the polypropylene-based composition.
An automated guided vehicle, characterized by comprising: a first receiver configured to receive a first signal of a first frequency that is sent by a first transmitter equipped on a movable object or a fixed object, wherein a transmission distance of the first signal is related to a set danger distance; a second receiver configured to receive a second signal of a second frequency that is sent by a second transmitter equipped on the movable object or the fixed object, wherein a transmission distance of the second signal is related to a set safety distance, the transmission distance of the second signal is farther than the transmission distance of the first signal; and a controller configured to control operation of the automated guided vehicle according to whether the first receiver receives the first signal, to prevent the automated guided vehicle from colliding with the movable object or the fixed object equipped with the first transmitter; and control the operation of the automated guided vehicle according to whether the second receiver receives the second signal in the condition that the first receiver does not receive the first signal. a first receiver configured to receive a first signal of a first frequency that is sent by a first transmitter equipped on a movable object or a fixed object, wherein a transmission distance of the first signal is related to a set danger distance; a second receiver configured to receive a second signal of a second frequency that is sent by a second transmitter equipped on the movable object or the fixed object, wherein a transmission distance of the second signal is related to a set safety distance, the transmission distance of the second signal is farther than the transmission distance of the first signal; and a controller configured to control operation of the automated guided vehicle according to whether the first receiver receives the first signal, to prevent the automated guided vehicle from colliding with the movable object or the fixed object equipped with the first transmitter; and control the operation of the automated guided vehicle according to whether the second receiver receives the second signal in the condition that the first receiver does not receive the first signal.
A method of preventing static discharge of a radial diode pack comprising: coupling an electrically conductive oil transfer tube of the radial diode pack to a grounding connection; and electrically coupling the electrically conductive oil transfer tube to a second electrically conductive oil transfer tube. coupling an electrically conductive oil transfer tube of the radial diode pack to a grounding connection; and electrically coupling the electrically conductive oil transfer tube to a second electrically conductive oil transfer tube.
A system (10;100;200) for diagnosing hemostasis utilizing a communication network (16; 116; 216), the system comprising: a blood hemostasis analyzer (12;112;212) for testing a whole blood sample and providing multiple parameters indicative of a whole blood, clot strength-related hemostasis profile, the blood hemostasis analyzer including an interface for communicatively coupling the blood hemostasis analyzer to the communication network; an analysis tool (14;114;214) communicatively coupled to the communication network, the analysis tool including a hemostasis profile analysis algorithm operable on said hemostasis profile to provide a hemostasis profile-related result; and wherein the blood hemostasis analyzer communicates the hemostasis profile to the analysis tool via the communication network and the analysis tool generates the result based upon the algorithm and the hemostasis profile. a blood hemostasis analyzer (12;112;212) for testing a whole blood sample and providing multiple parameters indicative of a whole blood, clot strength-related hemostasis profile, the blood hemostasis analyzer including an interface for communicatively coupling the blood hemostasis analyzer to the communication network; an analysis tool (14;114;214) communicatively coupled to the communication network, the analysis tool including a hemostasis profile analysis algorithm operable on said hemostasis profile to provide a hemostasis profile-related result; and wherein the blood hemostasis analyzer communicates the hemostasis profile to the analysis tool via the communication network and the analysis tool generates the result based upon the algorithm and the hemostasis profile.
An end-effector exchange device (10, 100, 110) comprising: a first adapter; a second adapter; and a release operation tool (92, 114), wherein the first adapter is attached to the second adapter in a manner that the first adapter is configured to be coupled to and separated from the second adapter, the first adaptor is configured to be attached to a robot arm or a transfer device, the second adaptor is configured to be attached to an end effector the first adapter includes a piston driven by supply and discharge of air, a cam member integrally coupled to the piston, and an engagement ball configured to be in contact with a side surface of a cam portion of the cam member, in a case where the cam member is in a first position, the engagement ball projects and prevents separation between the first adapter and the second adapter, in a case where the cam member is in a second position, the engagement ball is retracted and allows separation between the first adapter and the second adapter, characterized in that the release operation tool (92, 114) is configured to come into contact with the side surface of the cam portion, and the second adapter includes a separation operation hole (80, 112) into which the release operation tool (92, 114) is inserted. a first adapter; a second adapter; and a release operation tool (92, 114), wherein the first adapter is attached to the second adapter in a manner that the first adapter is configured to be coupled to and separated from the second adapter, the first adaptor is configured to be attached to a robot arm or a transfer device, the second adaptor is configured to be attached to an end effector the first adapter includes a piston driven by supply and discharge of air, a cam member integrally coupled to the piston, and an engagement ball configured to be in contact with a side surface of a cam portion of the cam member, a piston driven by supply and discharge of air, a cam member integrally coupled to the piston, and an engagement ball configured to be in contact with a side surface of a cam portion of the cam member, in a case where the cam member is in a first position, the engagement ball projects and prevents separation between the first adapter and the second adapter, in a case where the cam member is in a second position, the engagement ball is retracted and allows separation between the first adapter and the second adapter, characterized in that the release operation tool (92, 114) is configured to come into contact with the side surface of the cam portion, and the second adapter includes a separation operation hole (80, 112) into which the release operation tool (92, 114) is inserted.
Device for fixing an electrical casing on a support surface, comprising four orifices (1, 14, 15, 16) provided in the back wall of the casing in the vicinity respectively of the four corners thereof, four screws (3, 11, 12, 13) intended to pass respectively through the four orifices to be screwed into the support surface and, associated with each orifice, a shutter (4, 17, 18, 19) capable of partially shutting said orifice and comprising a so-called first opening (6, 20, 21, 22) capable of slidingly receiving the shank of the screw (3, 11, 12, 13) associated with said orifice, so that said shutter forms a bearing surface for the screw head (5, 26, 27, 28) while allowing the screw to assume different positions in the opening and thus allow an adjustment of the position of the casing relative to the walled surface, characterized in that the abovementioned shutter (4, 17, 18, 19) is mounted to rotate about a rotation axis-forming rod (8, 23, 24, 25) extending at right angles to the back wall, said shutter (4, 17, 18, 19) also being slidingly mounted relative to said rod substantially at right angles to the axis of said rod (8, 23, 24, 25) such that said shutter (4, 17, 18, 19) can fulfil its function of bearing surface for the head (5, 26, 27, 28) of the screw (3, 11, 12, 13) whatever the position thereof, over substantially all the surface area of the orifice (1, 14, 15, 16).
A machine for making at least one continuous rod of filter material or tobacco, comprising: - a process station for processing filter material or tobacco to make at least one semi-finished, continuous stream of filter material or tobacco, - a pre-forming device located downstream of the process station and adapted to receive the at least one semi-finished, continuous stream in order to make at least one continuous stream of filter material or tobacco, - a garniture tongue configured to form at least one continuous rod of filter material or tobacco, located downstream of the pre-forming device and adapted to receive the at least one continuous stream, the garniture tongue having a forming channel along which the at least one continuous rod is progressively formed as it feeds along a forming feed direction; the pre-forming device comprising at least one oblong tile-shaped member having a directrix which makes a first defined angle (α) with the forming feed direction, the at least one oblong tile-shaped member having an inside surface which is configured to progressively reduce the transverse cross section of the semi-finished, continuous stream feeding along it between an infeed portion and an outfeed portion of the oblong tile-shaped member and to channel the stream into the forming channel; the machine being characterized in that, at the outfeed portion of said oblong tile-shaped member between the oblong tile-shaped member itself and the channel of the garniture tongue, the pre-forming device comprises at least one tile-shaped upwardly-diverging end member, and in that the pre-forming device comprises at least one connecting member between the oblong tile-shaped member and the end member, wherein said connecting member has an inside surface which blends smoothly with the inside surface of the oblong tile-shaped member and defining an intermediate connecting feed path, said at least one connecting member being configured in such a way as to allow a semi-finished continuous stream of filter material or tobacco to be progressively compacted. - a process station for processing filter material or tobacco to make at least one semi-finished, continuous stream of filter material or tobacco, - a pre-forming device located downstream of the process station and adapted to receive the at least one semi-finished, continuous stream in order to make at least one continuous stream of filter material or tobacco, - a garniture tongue configured to form at least one continuous rod of filter material or tobacco, located downstream of the pre-forming device and adapted to receive the at least one continuous stream, the garniture tongue having a forming channel along which the at least one continuous rod is progressively formed as it feeds along a forming feed direction;
An optimizing method of a suction condition of a microparticle (602, 802), comprising: a particle number counting step of detecting a time point when the microparticle (602, 802) passes through a predetermined position on a main flow path through which liquid containing the microparticle (602, 802) flows, sucking the microparticle (602, 802) from the main flow path to a microparticle suction flow path by the microparticle suction flow path with a predetermined suction force (D 0, D n, D z), and counting the number of microparticles sucked into the microparticle suction flow path; and a step of determining an optimized elapsed time at which the suction by the microparticle suction flow path should be performed, the elapsed time being a time from passage through the predetermined position to performing the suction by the microparticle suction flow path, the optimizing method of the suction condition of the microparticle (602, 802) further comprising a repeating step of repeating the particle number counting step while changing the time from the time point when the microparticle passes through the predetermined position on the main flow path until the suction is performed, wherein the optimized elapsed time is determined on basis of the times obtained in the repeating step and the numbers of counted microparticles obtained in the repeating step. a particle number counting step of detecting a time point when the microparticle (602, 802) passes through a predetermined position on a main flow path through which liquid containing the microparticle (602, 802) flows, sucking the microparticle (602, 802) from the main flow path to a microparticle suction flow path by the microparticle suction flow path with a predetermined suction force (D 0, D n, D z), and counting the number of microparticles sucked into the microparticle suction flow path; and a step of determining an optimized elapsed time at which the suction by the microparticle suction flow path should be performed, the elapsed time being a time from passage through the predetermined position to performing the suction by the microparticle suction flow path, the optimizing method of the suction condition of the microparticle (602, 802) further comprising a repeating step of repeating the particle number counting step while changing the time from the time point when the microparticle passes through the predetermined position on the main flow path until the suction is performed, wherein the optimized elapsed time is determined on basis of the times obtained in the repeating step and the numbers of counted microparticles obtained in the repeating step.
A wastewater treatment method comprising: receiving wastewater in one or more zones for biological nitrogen removal; and performing a biological nitrogen removal process on said wastewater in said one or more zones, wherein said biological nitrogen removal process includes a first reaction, which is a partial denitrification reaction in which nitrate is reduced to nitrite under an anoxic condition, and a second reaction, in which part or all of the nitrite generated is used as an electron acceptor and reduced to dinitrogen by anammox bacteria, wherein said method comprises an oxidized nitrogen measurement, which is a measurement of the nitrate concentration, said method being characterized in that it comprises, during the first reaction, adding of an electron donor, wherein the adding of the electron donor is controlled based on the measurement of the nitrate concentration to meet an effluent nitrate concentration set point, said nitrate concentration set point being higher than 1.5 mg N/L nitrate as nitrogen, wherein the electron donor includes a degradable carbon source including alcohols, volatile fatty acids, carbohydrates, wastewater carbons, carbon from industrial wastes or manufacturing byproducts, methane, aldehydes and/or ketones. receiving wastewater in one or more zones for biological nitrogen removal; and performing a biological nitrogen removal process on said wastewater in said one or more zones, wherein said biological nitrogen removal process includes a first reaction, which is a partial denitrification reaction in which nitrate is reduced to nitrite under an anoxic condition, and a second reaction, in which part or all of the nitrite generated is used as an electron acceptor and reduced to dinitrogen by anammox bacteria, wherein said method comprises an oxidized nitrogen measurement, which is a measurement of the nitrate concentration, said method being characterized in that it comprises, during the first reaction, adding of an electron donor, wherein the adding of the electron donor is controlled based on the measurement of the nitrate concentration to meet an effluent nitrate concentration set point, said nitrate concentration set point being higher than 1.5 mg N/L nitrate as nitrogen, wherein the electron donor includes a degradable carbon source including alcohols, volatile fatty acids, carbohydrates, wastewater carbons, carbon from industrial wastes or manufacturing byproducts, methane, aldehydes and/or ketones.
Detection device for detection of an event in a monitoring area, with a camera interface for transferring at least one image, wherein the at least one image shows the monitoring area, with an image analysis unit, wherein the image analysis unit is configured to determine event specifications for at least any one position in the monitoring area on the basis of the image, with an alarm unit with alarm specifications, wherein the alarm unit is configured to define an alarm on the basis of a comparison of the alarm specifications with the event specifications, with a storage unit, wherein the storage unit is configured to store the event specifications for the at least any one position in the monitoring area, characterized by a calculation unit for calculating and/or defining at least one false event area on the basis of the event specifications and the alarm specifications, wherein the false event area is an area of the monitoring area in which the event is detected with selected alarm specifications even though the event has not actually occurred. with a masking unit for the automatic modification of the alarm specifications within the at least one false event area and/or for the exclusion of the false event area from the determination of event specifications by the image analysis unit. with a camera interface for transferring at least one image, wherein the at least one image shows the monitoring area, with an image analysis unit, wherein the image analysis unit is configured to determine event specifications for at least any one position in the monitoring area on the basis of the image, with an alarm unit with alarm specifications, wherein the alarm unit is configured to define an alarm on the basis of a comparison of the alarm specifications with the event specifications, with a storage unit, wherein the storage unit is configured to store the event specifications for the at least any one position in the monitoring area, characterized by a calculation unit for calculating and/or defining at least one false event area on the basis of the event specifications and the alarm specifications, wherein the false event area is an area of the monitoring area in which the event is detected with selected alarm specifications even though the event has not actually occurred. with a masking unit for the automatic modification of the alarm specifications within the at least one false event area and/or for the exclusion of the false event area from the determination of event specifications by the image analysis unit.