mhurhangee/ep-ind-claims huggingface dataset:
A remote support system that includes an image processing apparatus, an information processing apparatus, and a relay server, and in which an operator that uses the information processing apparatus supports, via the relay server, a user that uses the image processing apparatus, wherein the image processing apparatus, the information processing apparatus and the relay server are connected to be able to intercommunicate via a network, the image processing apparatus comprising at least one processor and at least one memory coupled to the at least one processor which act as a first communication unit configured to perform communication with the information processing apparatus via the relay server; and a display control unit configured to cause a display unit of the image processing apparatus to display video in accordance with data received from the information processing apparatus by the first communication unit, and the information processing apparatus comprising at least one processor and at least one memory coupled to the at least one processor which act as a second communication unit configured to perform communication with the image processing apparatus via the relay server, characterized in that the at least one processor and at least one memory coupled to the at least one processor of the information processing apparatus further act as a decision unit configured to decide, based on an operator input, a mode for transmission to the image processing apparatus that is supported via the relay server; and a transmission control unit configured to transmit video via the relay server to the image processing apparatus by the second communication unit in accordance with transmission settings corresponding to the mode for transmission decided by the decision unit, wherein the transmission control unit is configured to, if the mode for transmission decided by the decision unit is a first mode in which video that captures a portion of a screen displayed on a display unit of the information processing apparatus is transmitted, display on the display unit of the information processing apparatus a frame for deciding a region to be captured, and transmit to the image processing apparatus via the relay server video internal to the frame, and if the mode for transmission decided by the decision unit is a second mode in which video of a camera that is arranged on the information processing apparatus is transmitted, transmit to the image processing apparatus via the relay server video captured from the camera, wherein the transmission control unit is further configured to, if the mode for transmission is the first mode, set the transmission settings for the video to be transmitted to a higher resolution and lower framerate than in the second mode, and transmit the video with these transmission settings, and if the mode for transmission is the second mode, set the transmission settings for the video to be transmitted to a lower resolution and higher framerate than in the first mode, and transmit the video with these transmission settings.
An ophthalmic surgery assembly comprising: a cannula (202, 402, 602) having a thin distal tip (206, 406, 606) and a flared proximal body (204, 604); a positioning insert (208, 408, 608) having a shape configured to fit tightly within the flared proximal body of the cannula and having a passage disposed through an axial length of the positioning insert, characterized in that the ophthalmic surgery assembly additionally comprises an optical fiber support tube (220, 420, 620) having an inner diameter configured to allow an optical fiber (238, 638) to be housed therein and having an outer diameter configured to fit into the passage in the positioning insert such that the positioning insert, when placed within the flared proximal body of the cannula, maintains substantial centration of a distal fiber tip (240, 640) of the optical fiber; the positioning insert is configured with two sets of arms (214, 216) protruding from the positioning insert, the two sets of arms each configured to contact an inner surface of the flared proximal body of the cannula; and the two sets of arms have respective attachment points (426, 428, 430, 626, 628, 630) on opposing ends of the axial length of the positioning insert, and wherein the two sets of arms extend away from the respective attachment points and towards the opposing side of the axial length of the positioning insert. a cannula (202, 402, 602) having a thin distal tip (206, 406, 606) and a flared proximal body (204, 604); a positioning insert (208, 408, 608) having a shape configured to fit tightly within the flared proximal body of the cannula and having a passage disposed through an axial length of the positioning insert, characterized in that the ophthalmic surgery assembly additionally comprises an optical fiber support tube (220, 420, 620) having an inner diameter configured to allow an optical fiber (238, 638) to be housed therein and having an outer diameter configured to fit into the passage in the positioning insert such that the positioning insert, when placed within the flared proximal body of the cannula, maintains substantial centration of a distal fiber tip (240, 640) of the optical fiber; the positioning insert is configured with two sets of arms (214, 216) protruding from the positioning insert, the two sets of arms each configured to contact an inner surface of the flared proximal body of the cannula; and the two sets of arms have respective attachment points (426, 428, 430, 626, 628, 630) on opposing ends of the axial length of the positioning insert, and wherein the two sets of arms extend away from the respective attachment points and towards the opposing side of the axial length of the positioning insert.
A water heating device suitable to be used on an induction heating cooktop that comprises one or more than one induction coil, comprising a heating container produced from non-ferromagnetic material, a base and a metal plate that is placed into the heating container, - the metal plate being produced from ferromagnetic material and being capable of heating the liquids placed into the heating container by being heated with the magnetic energy transferred by the induction coil, characterized in that the metal plate is movable upwards-inwards inside the heating container, - thus further being capable of providing the adjustment of the temperature of the liquid placed into the heating container by changing the distance (h) between the base and the metal plate without changing the power transferred from the induction coil. - the metal plate being produced from ferromagnetic material and being capable of heating the liquids placed into the heating container by being heated with the magnetic energy transferred by the induction coil, characterized in that the metal plate is movable upwards-inwards inside the heating container, - thus further being capable of providing the adjustment of the temperature of the liquid placed into the heating container by changing the distance (h) between the base and the metal plate without changing the power transferred from the induction coil.
A system for containing fluidic media, the system comprising: a reservoir body having at least one wall defining an interior volume for containing fluidic media, the wall comprising a cyclic olefin copolymer, the wall for substantially preventing light from passing through the reservoir body; wherein the wall of the reservoir body comprises at least one window for allowing light to pass into the interior volume of the reservoir body; and wherein the wall has a light transmission at 400 nm of less than 25%. a reservoir body having at least one wall defining an interior volume for containing fluidic media, the wall comprising a cyclic olefin copolymer, the wall for substantially preventing light from passing through the reservoir body; wherein the wall of the reservoir body comprises at least one window for allowing light to pass into the interior volume of the reservoir body; and wherein the wall has a light transmission at 400 nm of less than 25%.
A method in a mobile device for estimating a mass, the method comprising: placing an object on a display of the mobile device; vibrating the mobile device loaded with the object; measuring a loaded vibration of the mobile device and the object comprising determining linear acceleration from an accelerometer, wherein the mobile device comprises the accelerometer; comparing a tare vibration to the loaded vibration to result in a comparison, wherein the tare vibration comprises a measurement of a vibration of the mobile device unloaded with the object; and determining the mass of the object from the comparison. placing an object on a display of the mobile device; vibrating the mobile device loaded with the object; measuring a loaded vibration of the mobile device and the object comprising determining linear acceleration from an accelerometer, wherein the mobile device comprises the accelerometer; comparing a tare vibration to the loaded vibration to result in a comparison, wherein the tare vibration comprises a measurement of a vibration of the mobile device unloaded with the object; and determining the mass of the object from the comparison.
An exercise machine comprising: a frame; a motor assembly; a mounting plate, wherein the mounting plate is attached to the motor assembly; a force transducer, wherein the force transducer is attached to the mounting plate and the frame, wherein the force transducer is the only point of contact between the frame and the motor assembly 8102), and wherein the force transducer is configured to measure torque applied to the motor assembly; and a display configured to display measured force information, wherein the display is positioned in front of a user during use, and wherein the motor assembly, the mounting plate, and the force transducer are positioned behind the user during use. a frame; a motor assembly; a mounting plate, wherein the mounting plate is attached to the motor assembly; a force transducer, wherein the force transducer is attached to the mounting plate and the frame, wherein the force transducer is the only point of contact between the frame and the motor assembly 8102), and wherein the force transducer is configured to measure torque applied to the motor assembly; and a display configured to display measured force information, wherein the display is positioned in front of a user during use, and wherein the motor assembly, the mounting plate, and the force transducer are positioned behind the user during use.
A sample processing apparatus, comprising: a sample processing unit for obtaining a sample from a sample container and performing a predetermined process of the sample; a transport unit which includes a transport region for transporting, in a transport operation, a sample rack holding the sample container to the sample processing unit, a rack removal region where the sample rack is accessible to an operator, and a restraining member for restraining contact by the operator to the sample rack on the transport region; a transport controller for controlling the transport unit to transport the sample rack on the transport region to the rack removal region after a predetermined transport suspension event occurs during the transport operation; and an input device for inputting a command to transport the sample rack on the transport region to the rack removal region, wherein the transport suspension event includes the input of the command by the input device. a sample processing unit for obtaining a sample from a sample container and performing a predetermined process of the sample; a transport unit which includes a transport region for transporting, in a transport operation, a sample rack holding the sample container to the sample processing unit, a rack removal region where the sample rack is accessible to an operator, and a restraining member for restraining contact by the operator to the sample rack on the transport region; a transport controller for controlling the transport unit to transport the sample rack on the transport region to the rack removal region after a predetermined transport suspension event occurs during the transport operation; and an input device for inputting a command to transport the sample rack on the transport region to the rack removal region, wherein the transport suspension event includes the input of the command by the input device.
An FXYD protein selected from the group consisting of FXYD1 (SEQ ID NO: 1), FXYD3 (SEQ ID NO: 3), FXYD4 (SEQ ID NO: 4) and FXYD7 (SEQ ID NO: 7) or a fragment or variant thereof for use in the treatment of myocardial infarction, wherein the fragment or variant has an ability to promote deglutathionylation of the Na/K pump, wherein the fragment or variant comprises a reactive cysteine corresponding to Cys62 of FXYD1, and wherein the variant exhibits at least 80% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3, SEQ ID NO: 4 or SEQ ID NO: 7, respectively, across the length of the variant.
Method for improving the safety of an overtaking manoeuvre by a vehicle driving up to a bicycle, wherein a future path of the vehicle is altered in an automated manner if a lateral safety distance from a probable trajectory of the bicycle is breached, the vehicle being guided on the altered path if said path runs within an available traffic area, the available traffic area being determined using road sign information that represents identified road signs.
A fuel cell formed by stacking a plurality of fuel cell units (12, 142) each including one or more membrane electrode assemblies and a plurality of separators, the membrane electrode assembly including a pair of electrodes and an electrolyte membrane interposed between the electrodes, resin guide members (90a to 90c, 196a, 196b) being provided at outer circumferential portions of each of the separators (14, 18, 20), or at outer circumferential portions each of of the membrane electrode assemblies (146a, 146b), at the same position in the stacking direction; characterized in that the resin guide members (90a, 90c) provided in all but one of the separators (14, 20) of each fuel cell unit, or the resin guide members provided in all but one of the membrane electrode assemblies of each fuel cell unit have recessed portions (102a, 102b, 200), which are spaced inwardly from the outer end of the remaining resin guide member (90b, 196b) of the same fuel cell unit.
An intravenous set system, comprising: a primary IV set (100, 200, 300, 400, 500) having a plurality of access points facilitating access to one or more fluid pathways of the primary IV set (100, 200, 300, 400, 500), top-level marking indicia, and second-level marking indicia; a secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518) removably coupleable with the primary IV set (100, 200, 300, 400, 500) via one of the access points of the primary IV set (100, 200, 300, 400, 500), the secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518) comprising a plurality of access points facilitating access to one or more fluid pathways of the secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518), and marking indicia that differs from the top-level marking indicia of the primary IV set (100, 200, 300, 400, 500), wherein the primary and secondary IV sets are distinguishable from one another, and wherein the second-level marking indicia of the primary IV set (100, 200, 300, 400, 500) matches the marking indicia of the secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518) providing a set of matching indicia across IV sets. a primary IV set (100, 200, 300, 400, 500) having a plurality of access points facilitating access to one or more fluid pathways of the primary IV set (100, 200, 300, 400, 500), top-level marking indicia, and second-level marking indicia; a secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518) removably coupleable with the primary IV set (100, 200, 300, 400, 500) via one of the access points of the primary IV set (100, 200, 300, 400, 500), the secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518) comprising a plurality of access points facilitating access to one or more fluid pathways of the secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518), and marking indicia that differs from the top-level marking indicia of the primary IV set (100, 200, 300, 400, 500), wherein the primary and secondary IV sets are distinguishable from one another, and wherein the second-level marking indicia of the primary IV set (100, 200, 300, 400, 500) matches the marking indicia of the secondary IV set (116, 118, 120, 216, 218, 316, 318, 416, 418, 516, 518) providing a set of matching indicia across IV sets.
A method for determining an optical signal-to-noise ratio of a modulated optical signal propagating in a transmission link, the modulated optical signal comprising a plurality of wavelength channels, the method comprising: (a) measuring an optical power spectrum of the modulated optical signal, the optical power spectrum comprising at least one of the plurality of wavelength channels; (b) measuring a time-varying parameter of the modulated optical signal comprising at least one of: time-varying optical signal amplitudes and phases in two mutually orthogonal polarization states, and time-varying optical signal power levels in two mutually orthogonal polarization states; wherein the time-varying parameter is measured in the two mutually orthogonal polarization states at a first predetermined optical frequency and is simultaneously measured at a second predetermined optical frequency, wherein the first and second predetermined optical frequencies are in a selected one of the plurality of wavelength channels and are separated by a non-zero frequency interval; (c) determining a correlation between the time-varying parameters measured in step (b) at the first and second optical frequencies by calculating a correlation coefficient between the time-varying parameters at the first and second optical frequencies; and (d) determining an optical signal-to-noise ratio from the optical power spectrum measured in step (a) and the correlation coefficient calculated in step (c). (a) measuring an optical power spectrum of the modulated optical signal, the optical power spectrum comprising at least one of the plurality of wavelength channels; (b) measuring a time-varying parameter of the modulated optical signal comprising at least one of: time-varying optical signal amplitudes and phases in two mutually orthogonal polarization states, and time-varying optical signal power levels in two mutually orthogonal polarization states; wherein the time-varying parameter is measured in the two mutually orthogonal polarization states at a first predetermined optical frequency and is simultaneously measured at a second predetermined optical frequency, wherein the first and second predetermined optical frequencies are in a selected one of the plurality of wavelength channels and are separated by a non-zero frequency interval; time-varying optical signal amplitudes and phases in two mutually orthogonal polarization states, and time-varying optical signal power levels in two mutually orthogonal polarization states; (c) determining a correlation between the time-varying parameters measured in step (b) at the first and second optical frequencies by calculating a correlation coefficient between the time-varying parameters at the first and second optical frequencies; and (d) determining an optical signal-to-noise ratio from the optical power spectrum measured in step (a) and the correlation coefficient calculated in step (c).
A liquid cleaning and/or cleansing composition comprising biodegradable abrasive cleaning particles, wherein said biodegradable abrasive cleaning particles comprise biodegradable polyurethane comprising an isocyanate monomer or mixtures thereof and a biodegradable polyol selected from the group consisting of: saccharides; oligosaccharides: glycosides: and carbohydrates; and mixtures thereof; and wherein said biodegradable polyurethane comprise isocyanate monomers from 10% to 30% by weight of said biodegradable polyurethane; and wherein said biodegradable polyurethane has a biodegradable rate above 50% according to OECD301 C.
A user terminal (20, 204) communicating with a first cell and a second cell, comprising: a receiving section that receives a first cell detection indication including timing information and assist information transmitted from the second cell; a detection section that detects a synchronization signal included in a discovery signal transmitted from the first cell, in accordance with the timing information; and a measurement section that performs measurement using a channel state information-reference signal, CSI-RS, for discovery that is included in the discovery signal and is configured apart from a CSI-RS configured for channel state measurement, in accordance with the synchronization signal and the assist information, wherein the timing information includes values of an offset, a period and a duration of the discovery signal, and the assist information includes values of a physical cell ID of the first cell or a transmission point, a scrambling ID used for the CSI-RS for discovery, a resource configuration and a subframe offset. a receiving section that receives a first cell detection indication including timing information and assist information transmitted from the second cell; a detection section that detects a synchronization signal included in a discovery signal transmitted from the first cell, in accordance with the timing information; and a measurement section that performs measurement using a channel state information-reference signal, CSI-RS, for discovery that is included in the discovery signal and is configured apart from a CSI-RS configured for channel state measurement, in accordance with the synchronization signal and the assist information, wherein the timing information includes values of an offset, a period and a duration of the discovery signal, and the assist information includes values of a physical cell ID of the first cell or a transmission point, a scrambling ID used for the CSI-RS for discovery, a resource configuration and a subframe offset.
A wire inlet nozzle for fastening in a coupling of a hose package, comprising a wire inlet element and a fastening means for a wire core for guiding a welding wire, wherein a main body is formed between the wire inlet element and the fastening means and a cavity is formed in the wire inlet element, in which cavity at least one sealing element having an axial opening for guiding the welding wire is arranged, characterised in that the main body forms a first part of the wire inlet element, and a second part of the wire inlet element is detachably connectable to the first part, wherein the cavity in the wire inlet element is split between the first part and the second part, wherein the welding wire is led in the centre of the cavity through the axial opening of the sealing element and the diameter of the cavity is larger than the outside diameter of the sealing element and the sealing element is designed shorter than than the cavity, so a free space is created between the sealing element and the cavity, and the sealing element is movable radially as well as axially in the cavity, and the main body is designed as a separating plane for independently fastening the wire core and the sealing element.
Release-matrix for controlled release of a nutrient, inducer or pH controlling agent into a medium, comprising a cross-linked polymer system based on a polysiloxane, a reactive polysiloxane and a nutrient, inducer or pH controlling agent embedded therein, characterized in that the particle size of the nutrient, inducer or pH controlling agent is from 1-20 μm, and wherein the nutrient, inducer or pH controlling agent is distributed homogeneously in the release-matrix.