mhurhangee/ep-ind-claims huggingface dataset:
A coated film having anti-static and/or anti-dusting properties comprising: a base film having a first side and a second side; and a coating on at least the first side of the film, the coating comprising: an anti-static agent comprising an anionic copolyester; a print enhancing agent comprising a vinyl ether present in the dried coating in an amount from 10% to 35% by weight; an adhesion promoter comprising an alkylene and acrylic acid copolymer present in the dried coating in an amount from 20% to 55% by weight; a crosslinking agent comprising a melamine present in the dried coating in an amount from 1% to 5% by weight. a base film having a first side and a second side; and a coating on at least the first side of the film, the coating comprising: an anti-static agent comprising an anionic copolyester; a print enhancing agent comprising a vinyl ether present in the dried coating in an amount from 10% to 35% by weight; an adhesion promoter comprising an alkylene and acrylic acid copolymer present in the dried coating in an amount from 20% to 55% by weight; a crosslinking agent comprising a melamine present in the dried coating in an amount from 1% to 5% by weight. an anti-static agent comprising an anionic copolyester; a print enhancing agent comprising a vinyl ether present in the dried coating in an amount from 10% to 35% by weight; an adhesion promoter comprising an alkylene and acrylic acid copolymer present in the dried coating in an amount from 20% to 55% by weight; a crosslinking agent comprising a melamine present in the dried coating in an amount from 1% to 5% by weight.
An electromagnetic flowmeter configured to apply a magnetic field, which is generated by excitation current, to a fluid to be measured flowing in a measurement tube, and to measure a flow rate of the fluid to be measured on the basis of a detection signal to be generated from an electrode (103a, 103b) provided in the measurement tube, the electromagnetic flowmeter comprising: an excitation circuit configured to generate the excitation current having a positive excitation period, a negative excitation period and a non-excitation period; and a diagnosis unit configured to detect an abnormality based on characteristics of the fluid to be measured, on the basis of a level of the detection signal in a non-excitation stable period, which is a period in which a differential noise of detection signal to be generated in the non-excitation period converges, wherein the diagnosis unit is configured to determine that the abnormality which causes a variation of a potential of the electrode (103a, 103b) has occurred, when the level of the detection signal is equal to or greater than a predetermined reference value. an excitation circuit configured to generate the excitation current having a positive excitation period, a negative excitation period and a non-excitation period; and a diagnosis unit configured to detect an abnormality based on characteristics of the fluid to be measured, on the basis of a level of the detection signal in a non-excitation stable period, which is a period in which a differential noise of detection signal to be generated in the non-excitation period converges, wherein the diagnosis unit is configured to determine that the abnormality which causes a variation of a potential of the electrode (103a, 103b) has occurred, when the level of the detection signal is equal to or greater than a predetermined reference value.
An image processing device, comprising: an imaging unit for taking an image (IM to IM) of a measuring object; a stage configured to be mountable with the measuring object and to be shiftable relatively with respect to the imaging unit; and a control unit for shifting the imaging unit relatively with respect to the stage to take an image (IM to IM) of the measuring object at a plurality of places by the imaging unit and thereby obtain a plurality of images (IM to IM), and for generating a composite image (IMa) of the measuring object having a range which is wider than an imaging range of the imaging unit by combining the obtained plurality of images or images obtained by a certain processing from the obtained plurality of images (IM to IM), characterized in that the control unit shifts the imaging unit relatively with respect to the stage such that parts of images adjacent to one another obtained by the imaging unit overlap, the control unit performs an image matching processing that performs image matching of an overlapping portion (RIM to RIM) of the adjacent images, the control unit generates the composite image (IMa) of the measuring object by joining the adjacent images at a position where the image matching is performed in the image matching processing, and the control unit calculates a misalignment amount of angles of coordinates systems in the composite image (IMa) and the stage by the image matching processing, and controls shifting of the imaging unit with respect to the stage based on the misalignment amount of the angles. an imaging unit for taking an image (IM to IM) of a measuring object; a stage configured to be mountable with the measuring object and to be shiftable relatively with respect to the imaging unit; and a control unit for shifting the imaging unit relatively with respect to the stage to take an image (IM to IM) of the measuring object at a plurality of places by the imaging unit and thereby obtain a plurality of images (IM to IM), and for generating a composite image (IMa) of the measuring object having a range which is wider than an imaging range of the imaging unit by combining the obtained plurality of images or images obtained by a certain processing from the obtained plurality of images (IM to IM), characterized in that the control unit shifts the imaging unit relatively with respect to the stage such that parts of images adjacent to one another obtained by the imaging unit overlap, the control unit performs an image matching processing that performs image matching of an overlapping portion (RIM to RIM) of the adjacent images, the control unit generates the composite image (IMa) of the measuring object by joining the adjacent images at a position where the image matching is performed in the image matching processing, and the control unit calculates a misalignment amount of angles of coordinates systems in the composite image (IMa) and the stage by the image matching processing, and controls shifting of the imaging unit with respect to the stage based on the misalignment amount of the angles.
A computer-implemented method for monitoring a subsurface during a 4-dimensional survey, the method comprising: obtaining a full survey of an area of the subsurface that needs to be monitored; identifying receiver and source locations for the area and source frequencies to be emitted into the area during light surveys based on demigration or inverse ray tracing of the full survey; performing or receiving seismic data from a light base survey for the area based on the identified receiver and source locations for the area and source frequencies to be emitted into the area based on demigration or inverse ray tracing; performing or receiving seismic data from a light monitor survey for the area based on the same identified receiver and sources locations for the area and source frequencies to be emitted into the area based on demigration or inverse ray tracing as for performing the light base survey; and generating an image of the area based on a comparison of (i) the light base survey, and (ii) the light monitor survey for the area; wherein any of the light surveys yields substantially less data than obtained during the full survey. obtaining a full survey of an area of the subsurface that needs to be monitored; identifying receiver and source locations for the area and source frequencies to be emitted into the area during light surveys based on demigration or inverse ray tracing of the full survey; performing or receiving seismic data from a light base survey for the area based on the identified receiver and source locations for the area and source frequencies to be emitted into the area based on demigration or inverse ray tracing; performing or receiving seismic data from a light monitor survey for the area based on the same identified receiver and sources locations for the area and source frequencies to be emitted into the area based on demigration or inverse ray tracing as for performing the light base survey; and generating an image of the area based on a comparison of (i) the light base survey, and (ii) the light monitor survey for the area;
An apparatus comprising: at least one processor; a computer readable memory storing a program of instructions; wherein the program of instructions is configured to, with the memory and the at least one processor, cause the apparatus to perform actions comprising at least: exchanging first timing information with a device with which the apparatus communicates over a wireless link, wherein the timing information is exchanged over a synchronization channel with the device; and wherein the timing information allows maintaining essentially the same time between the apparatus and the device; upon receiving a timing-over-packet packet, wherein the packet originates at a master device with second timing information, storing a timestamp indicating an arrival time of the packet at an ingress point of the apparatus; and transmitting the packet and the timestamp to the device over the wireless link. at least one processor; a computer readable memory storing a program of instructions; wherein the program of instructions is configured to, with the memory and the at least one processor, cause the apparatus to perform actions comprising at least: exchanging first timing information with a device with which the apparatus communicates over a wireless link, wherein the timing information is exchanged over a synchronization channel with the device; and wherein the timing information allows maintaining essentially the same time between the apparatus and the device; upon receiving a timing-over-packet packet, wherein the packet originates at a master device with second timing information, storing a timestamp indicating an arrival time of the packet at an ingress point of the apparatus; and transmitting the packet and the timestamp to the device over the wireless link. exchanging first timing information with a device with which the apparatus communicates over a wireless link, wherein the timing information is exchanged over a synchronization channel with the device; and wherein the timing information allows maintaining essentially the same time between the apparatus and the device; upon receiving a timing-over-packet packet, wherein the packet originates at a master device with second timing information, storing a timestamp indicating an arrival time of the packet at an ingress point of the apparatus; and transmitting the packet and the timestamp to the device over the wireless link.
A method for planning a treatment for correcting malocclusions, comprising: receiving a scanned dental model of a subject's dentition; applying a label to one or more teeth within the dental model; simulating a rolling ball process via a rolling ball algorithm to detect a side margin between adjacent teeth (212, 214) of the one or more teeth by rolling a simulated ball to follow an outline of the adjacent teeth (212, 214) along an exterior of the one or more teeth and gums within the dental model and detecting for changes in a path of the rolling ball; determining a boundary using the rolling ball algorithm between each of the one or more teeth and gums based on a path or trajectory (220, 222) of the rolling ball which follows an outline of the one or more teeth, wherein the rolling ball algorithm extrapolates the boundary between the one or more teeth to compensate for inaccessibility of the rolling ball between adjacent teeth and a change in energy state (196, 198) of the rolling ball is further indicative of the boundary between each of the one or more teeth and gums; assigning a hard region (224, 226) to each of the one or more teeth and a soft region (228, 230) to gums within the dental model; moving a position of the one or more teeth within the dental model to correct for malocclusions in developing a treatment plan; and fabricating one or more aligners to move the one or more teeth according to the treatment plan. receiving a scanned dental model of a subject's dentition; applying a label to one or more teeth within the dental model; simulating a rolling ball process via a rolling ball algorithm to detect a side margin between adjacent teeth (212, 214) of the one or more teeth by rolling a simulated ball to follow an outline of the adjacent teeth (212, 214) along an exterior of the one or more teeth and gums within the dental model and detecting for changes in a path of the rolling ball; determining a boundary using the rolling ball algorithm between each of the one or more teeth and gums based on a path or trajectory (220, 222) of the rolling ball which follows an outline of the one or more teeth, wherein the rolling ball algorithm extrapolates the boundary between the one or more teeth to compensate for inaccessibility of the rolling ball between adjacent teeth and a change in energy state (196, 198) of the rolling ball is further indicative of the boundary between each of the one or more teeth and gums; assigning a hard region (224, 226) to each of the one or more teeth and a soft region (228, 230) to gums within the dental model; moving a position of the one or more teeth within the dental model to correct for malocclusions in developing a treatment plan; and fabricating one or more aligners to move the one or more teeth according to the treatment plan.
A method performed by an observation receiver for enabling observation of a transmitter and a receiver, the method comprising: • receiving a Transmitter Radio Frequency, TXRF, signal spectrum, • receiving a Receiver Radio Frequency, RXRF, signal spectrum, • determining a switching scheme based on whether the type of the transmitter and the receiver is Frequency Division Duplex, FDD, or Time Division Duplex, TDD, and • converting, based on the switching scheme, the TXRF signal spectrum and the RXRF signal spectrum into a switched baseband signal spectrum. • receiving a Transmitter Radio Frequency, TXRF, signal spectrum, • receiving a Receiver Radio Frequency, RXRF, signal spectrum, • determining a switching scheme based on whether the type of the transmitter and the receiver is Frequency Division Duplex, FDD, or Time Division Duplex, TDD, and • converting, based on the switching scheme, the TXRF signal spectrum and the RXRF signal spectrum into a switched baseband signal spectrum.
A method of measuring a concentration of a target gas by using a gas sensor (110, 600) comprising a sensing layer having an electric resistance that changes by an oxidation reaction or a reduction reaction between gas molecules and the sensing layer, the method comprising: in response to the target gas being introduced along with air into the gas sensor (110, 600), monitoring a change of the electric resistance of the sensing layer; and determining the concentration of the target gas by analyzing a shape of the change of the electric resistance, wherein the determining of the concentration of the target gas comprises approximating the change of the electric resistance as a sum of a first electric resistance change caused by the oxidation reaction and a second electric resistance change caused by the reduction reaction; and determining the concentration of the target gas based on the second electric resistance change. in response to the target gas being introduced along with air into the gas sensor (110, 600), monitoring a change of the electric resistance of the sensing layer; and determining the concentration of the target gas by analyzing a shape of the change of the electric resistance, wherein the determining of the concentration of the target gas comprises approximating the change of the electric resistance as a sum of a first electric resistance change caused by the oxidation reaction and a second electric resistance change caused by the reduction reaction; and determining the concentration of the target gas based on the second electric resistance change.
A state quantity detection method in a direct power converting apparatus, wherein said direct power converting apparatus comprises a current-source converter, a plurality of input lines (ACLr, ACLs, ACLt) to which a multi-phase voltage is inputted; first and second DC power supply lines (L1, L2); and a voltage-source inverter, wherein said direct power converting apparatus has no power storage means in said first and second DC power supply lines between said current-source converter and said voltage-source inverter; said current-source converter includes a plurality of first high-arm side switching elements (Srp, Ssp, Stp) and a plurality of first low-arm side switching elements (Srn, Ssn, Stn), each of said first high-arm side switching elements (Srp, Ssp, Stp) being connected between each of said input lines (ACLr, ACLs, ACLt) and said first DC power supply line, each of said first low-arm side switching elements (Srn, Ssn, Stn) being connected between each of said input lines (ACLr, ACLs, ACLt) and said second DC power supply line, the method comprising the step: detecting, based on an instantaneous conduction pattern (I(rs)) of said high-arm side switching elements (Srp, Ssp, Stp) and said low-arm side switching elements (Srn, Ssn, Stn), a voltage (Vdc) between said first and second DC power supply lines (L1, L2) as a line voltage (Vrs) between said input lines (ACLr, ACLs, ACLt).
Bait box arrangement, comprising a bait box having a tubular housing that comprises on one side an entrance opening for rodents and that is closed on the other side by means of a lid, wherein a receiving device for poisonous bait is allocated to the lid, wherein the bait box is provided with a fastening device for fastening the bait box in a wastewater facility and it is possible by means of the fastening device to mount the bait box arrangement in the wastewater facility in such a manner that the one side is facing the fluid level of the wastewater that is guided in the wastewater facility and that the other side points, with the lid together with the receiving device, into the opposite direction, characterised in that the housing comprises at least two curved sections (8, 9).
A system on a chip (SoC 102) configured to communicate with a host system, the SoC comprising: a server compute subsystem for providing compute services, the server compute subsystem comprising dedicated memory resources for the server compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the server compute subsystem are communicatively coupled to a server compute subsystem coherent interconnect network; a network compute subsystem for managing network traffic for the host system and the server compute subsystem, the network compute subsystem comprising dedicated memory resources for the network compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the network compute subsystem are communicatively coupled to a network compute subsystem coherent interconnect network; a management compute subsystem for managing resources for the server compute subsystem and the network compute subsystem and determining which computing service tasks are to be offloaded to the server compute subsystem by identifying the computer service tasks that are tagged and forwarding those tagged computer service tasks to the sever computer subsystem; and one or more resources shared by the server compute subsystem and the network compute subsystem. a server compute subsystem for providing compute services, the server compute subsystem comprising dedicated memory resources for the server compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the server compute subsystem are communicatively coupled to a server compute subsystem coherent interconnect network; a network compute subsystem for managing network traffic for the host system and the server compute subsystem, the network compute subsystem comprising dedicated memory resources for the network compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the network compute subsystem are communicatively coupled to a network compute subsystem coherent interconnect network; a management compute subsystem for managing resources for the server compute subsystem and the network compute subsystem and determining which computing service tasks are to be offloaded to the server compute subsystem by identifying the computer service tasks that are tagged and forwarding those tagged computer service tasks to the sever computer subsystem; and one or more resources shared by the server compute subsystem and the network compute subsystem.
Surgical device comprising: two retractor blades facing each other and held together by a common frame, said retractor blades being insertable into a surgical incision in a patient and moveable away from each other along a main axis (x) so as to widen said surgical incision; said surgical device comprises a connecting pin attached at a distal end of each retractor blade, each connecting pin being attachable to a pedicle screw anchored to a respective vertebra of the patient, so that moving away the two retractor blades along said main axis (x) determines a distraction of said vertebrae.
Apparatus for connecting plastic profiled parts, in particular for welding PVC profiled bars to form window frames and door frames, having profile supports which have profile-support mounts or holding and clamping of profiled parts, wherein at least one profiled part and a heating surface of a heating element of the apparatus can be brought into contact with one another in order to start melting of the at least one profiled part in its welding region prior to being joined together with the other profiled part, wherein a processing tool is provided, said tool having at least one forming tool or forming part by means of which it is possible to control flow and deformation of a melt on a visible surface of the profiled part, wherein the forming part can be moved in an advancement direction from a rest position to an operating position relative to the profile-support mount, characterized in that at least one separating tool, which precedes the forming part in the advancement direction and is intended for severing and/or displacing at least part of the melt, is provided.
An electrode structure for a redox flow battery, the electrode structure comprising at least one electrode, characterized in that the electrode is configured as a surface element having flat surfaces (44, 46) on opposite sides (48, 50) of the electrode, the surfaces (44, 46) extending in respective parallel planes, wherein a plurality of three-dimensional protrusions is applied on at least one of the surfaces (44, 46) and protrude, from the at least one surface, at least in a direction being perpendicular to the respective planes, the protrusions are configured as spacers by means of which the electrode is kept at a distance from at least one further component of the electrode structure, characterized in that the protrusions contact the further component directly, whereas the further component is configured as ion exchange membrane for the redox flow battery and the protrusions are made from an electrically non-conductive material.