mhurhangee/ep-ind-claims huggingface dataset:
Method of correcting local machine-related colour defects in an offset printing press with an image recording system by means of a computer (3, 6), the method comprising the steps of • recording printed images by means of the image recording system while at least one print job is being processed • carrying out a colour transformation for the recorded printed images by means of the computer (3, 6) • determining local delta values for halftone values by means of the computer (3, 6) and based on the image data obtained by the colour transformation • correcting the delta values for the halftone values in an area coverage-dependent way by means of the computer (3, 6) • reading print job-specific influencing parameters out of the control of the offset printing press and analyzing them by means of the computer (3, 6) • determining correction values for the local machine-related colour defects on the basis of the corrected delta values for the halftone values and of the print job-specific influencing parameters by means of the computer (3, 6) • modifying the halftone values of subsequent print jobs on the basis of the determined correction values by means of the computer (3, 6) and creating printing plates on the basis of the modified halftone values • carrying out the print jobs by means of the printing plates that have been created. • recording printed images by means of the image recording system while at least one print job is being processed • carrying out a colour transformation for the recorded printed images by means of the computer (3, 6) • determining local delta values for halftone values by means of the computer (3, 6) and based on the image data obtained by the colour transformation • correcting the delta values for the halftone values in an area coverage-dependent way by means of the computer (3, 6) • reading print job-specific influencing parameters out of the control of the offset printing press and analyzing them by means of the computer (3, 6) • determining correction values for the local machine-related colour defects on the basis of the corrected delta values for the halftone values and of the print job-specific influencing parameters by means of the computer (3, 6) • modifying the halftone values of subsequent print jobs on the basis of the determined correction values by means of the computer (3, 6) and creating printing plates on the basis of the modified halftone values • carrying out the print jobs by means of the printing plates that have been created.
A flexible mold, comprising: a flexible polymer film; a curable resin layer provided on a surface of the polymer film, made of a material different from that of the flexible polymer film and containing silica in the form of microparticles whose average particle size is not less than 1 μ m and not more than 20 μ m; an aluminum layer provided on the curable resin layer and a porous alumina layer provided on the aluminum layer, the porous alumina layer having an inverted moth-eye structure in its surface, the inverted moth-eye structure having a plurality of recessed portions whose two-dimensional size viewed in a direction normal to the surface is not less than 10 nm and less than 500 nm, wherein the curable resin layer contains an acrylic resin. a flexible polymer film; a curable resin layer provided on a surface of the polymer film, made of a material different from that of the flexible polymer film and containing silica in the form of microparticles whose average particle size is not less than 1 μ m and not more than 20 μ m; an aluminum layer provided on the curable resin layer and a porous alumina layer provided on the aluminum layer, the porous alumina layer having an inverted moth-eye structure in its surface, the inverted moth-eye structure having a plurality of recessed portions whose two-dimensional size viewed in a direction normal to the surface is not less than 10 nm and less than 500 nm, wherein the curable resin layer contains an acrylic resin.
An automatic external defibrillator (AED, 410), comprising: a cardiac signal analyzer operable to analyze an ECG signal for shockable rhythm; a monitoring mode of operation (600, 602) for monitoring the ECG signal for a shockable rhythm; a CPR pause mode of operation (600, 612) that cannot be terminated by detection of a shockable rhythm; and a controller configured to select one of the monitoring mode and the CPR pause mode based on an output from the cardiac signal analyzer and the state of a CPR pause flag indicating if at least one CPR pause mode of operation has been performed, wherein the controller is configured to select the CPR pause mode in response to the cardiac signal analyzer providing an output indicating the absence of a shockable rhythm and to the CPR pause flag being in a NOT SET state, to select the monitoring mode in response to the cardiac signal analyzer providing an output indicating the absence of a shockable rhythm and the CPR pause flag being in a SET state, and to select the CPR pause mode of operation at least once prior to selecting the monitoring mode of operation. a cardiac signal analyzer operable to analyze an ECG signal for shockable rhythm; a monitoring mode of operation (600, 602) for monitoring the ECG signal for a shockable rhythm; a CPR pause mode of operation (600, 612) that cannot be terminated by detection of a shockable rhythm; and a controller configured to select one of the monitoring mode and the CPR pause mode based on an output from the cardiac signal analyzer and the state of a CPR pause flag indicating if at least one CPR pause mode of operation has been performed, wherein the controller is configured to select the CPR pause mode in response to the cardiac signal analyzer providing an output indicating the absence of a shockable rhythm and to the CPR pause flag being in a NOT SET state, to select the monitoring mode in response to the cardiac signal analyzer providing an output indicating the absence of a shockable rhythm and the CPR pause flag being in a SET state, and to select the CPR pause mode of operation at least once prior to selecting the monitoring mode of operation.
An implantable medical device for endoluminal deployment including a compressible and curvable structure and; a loop of suture material; characterised in that the loop includes a first end closed in a knot and a second end passing through the knot and able to slide therein at least in a loop tightening direction, the loop being fitted to the device such that tightening of the loop causes the device to be curved; and including a tie element which ties the knot to a part of the medical device.
A light detector arranged to detect coded light emitted from at least one light source, the light detector (100, 200) comprising a photo detector (102, 202), which is arranged to detect and decode the coded light, characterized in further comprising an image sensor (104, 204), and a screen (106, 206), wherein a field of view of the photo detector is within the field of view of the image sensor, wherein the light detector is arranged to display an image captured by the image sensor, on the screen, wherein the image comprises the at least one light source, the coded light of which is detected by the photo detector.
A system for internal inspection of a gas turbine, comprising: a mounting flange (112, 222) for affixation to a gas turbine inspection port (36, 50, 52); an inspection scope (60, 220) having an elongated body defining a central axis, a proximal end coupled to the mounting flange, and a distal end for insertion within a gas turbine inspection port; a linear drive (106, 224) for translating the inspection scope along its central axis, coupled thereto; a rotational drive (102, 226) for rotating the inspection scope about its central axis, coupled thereto; a camera head (66, 230), having a field of view, coupled to the inspection scope body distal end; a camera (156, 158, 236) coupled to the inspection scope, for capturing an image transmitted by the camera head; and a control system, coupled to the linear and rotational drives and the camera, for automatically positioning the inspection scope and field of view along a pre-designated navigation path within the gas turbine to an internal area of interest and for capturing a camera image thereof without human intervention. a mounting flange (112, 222) for affixation to a gas turbine inspection port (36, 50, 52); an inspection scope (60, 220) having an elongated body defining a central axis, a proximal end coupled to the mounting flange, and a distal end for insertion within a gas turbine inspection port; a linear drive (106, 224) for translating the inspection scope along its central axis, coupled thereto; a rotational drive (102, 226) for rotating the inspection scope about its central axis, coupled thereto; a camera head (66, 230), having a field of view, coupled to the inspection scope body distal end; a camera (156, 158, 236) coupled to the inspection scope, for capturing an image transmitted by the camera head; and a control system, coupled to the linear and rotational drives and the camera, for automatically positioning the inspection scope and field of view along a pre-designated navigation path within the gas turbine to an internal area of interest and for capturing a camera image thereof without human intervention.
A method of transmitting comprising: using an input symbol mapping, mapping a first input symbol to K symbols, where K>=2; applying a symbol-to-resource-element mapping to the K symbols; and transmitting on resources according to the symbol-to-resource-element mapping, wherein the symbol-to-resource-element mapping maps the K symbols to K tones out of T OFDM tones, and the method characterized in that the first input is a point on a 2 B -ary constellation, and each of the K symbols belongs to a respective one-dimensional space consisting of M points, where 2 B >=M. using an input symbol mapping, mapping a first input symbol to K symbols, where K>=2; applying a symbol-to-resource-element mapping to the K symbols; and transmitting on resources according to the symbol-to-resource-element mapping, wherein the symbol-to-resource-element mapping maps the K symbols to K tones out of T OFDM tones, and the method characterized in that the first input is a point on a 2 B -ary constellation, and each of the K symbols belongs to a respective one-dimensional space consisting of M points, where 2 B >=M.
Applicator for application of a viscous mass to a surface comprising a heated chamber in communication with openings controlled by valves allowing dropwise discharge of the viscous mass to the surface, characterized in that the valves are non-packed and comprise an outer sleeve having at least one through opening in its sleeve wall and a smooth internal sleeve surface as well as a valve plug having a smooth outer surface adapted to the internal surface of the outer sleeve, the valve plug being arranged to be moved by means of a valve lifter from a closed position in which the valve plug completely seals the at least one through opening in the sleeve wall, to an open position in which the valve plug is elevated so that at least the lowermost part of the at least one through opening is uncovered and allows viscous mass to pass from the outside of the sleeve to the inside thereof.
An airport robot (100, 600, 700) comprising: a driving driver (140, 640, 740) configured to drive a motor to move the airport robot (100, 600, 700); an image photographing unit (620, 720) configured to photograph image information about boarding persons located in a gate region differing from a set boarding gate region of a flight-scheduled airplane; a communication unit (610, 710) configured to receive a facial image of a ticket-issued person from a server (300, 1000); an image recognizer (630, 730) configured to perform image processing on the image information and to recognize one of the boarding persons matching the facial image of the person who is ticket-issued for the flight-scheduled airplane; a controller (660, 760) configured to, when the ticket-issued person is recognized, output movement path information so that the ticket-issued person can move to the set boarding gate region; and an output unit (650, 750) configured to output the movement path information. a driving driver (140, 640, 740) configured to drive a motor to move the airport robot (100, 600, 700); an image photographing unit (620, 720) configured to photograph image information about boarding persons located in a gate region differing from a set boarding gate region of a flight-scheduled airplane; a communication unit (610, 710) configured to receive a facial image of a ticket-issued person from a server (300, 1000); an image recognizer (630, 730) configured to perform image processing on the image information and to recognize one of the boarding persons matching the facial image of the person who is ticket-issued for the flight-scheduled airplane; a controller (660, 760) configured to, when the ticket-issued person is recognized, output movement path information so that the ticket-issued person can move to the set boarding gate region; and an output unit (650, 750) configured to output the movement path information.
Device for gasification, by a thermal plasma, of material in order to generate a high-quality synthetic gas, comprising: - a chamber for mixing a plasma and material to be treated, comprising openings (12, 12', 13, 13') for positioning means for injecting a flow of said material and for positioning at least one plasma source, this chamber forming a mixing zone and having a a spherical or ovoid shape allowing a forced injection of a material to be treated into the jet of at least one plasma and a homogenous mixture of a flow of said material and said plasma jet (200, 200'), - a zone for reaction (5a, 5b), of a mixture of said material and the plasma, in communication with an opening of the chamber and extending axially. - a chamber for mixing a plasma and material to be treated, comprising openings (12, 12', 13, 13') for positioning means for injecting a flow of said material and for positioning at least one plasma source, this chamber forming a mixing zone and having a a spherical or ovoid shape allowing a forced injection of a material to be treated into the jet of at least one plasma and a homogenous mixture of a flow of said material and said plasma jet (200, 200'), - a zone for reaction (5a, 5b), of a mixture of said material and the plasma, in communication with an opening of the chamber and extending axially.
A method of producing a haploid plant embryo comprising culturing or growing haploid plant material in the presence of phenylbutyrate, sodium phenylbutyrate or salt of butyric acid which has histone deacetylase inhibitor (HDACi) activity and haploid embryogenesis activity.
An intumescent fireproofing composition, comprising a formulation that includes: a. a resin; b. a coalescent; c. fibers of a predetermined size; and d. clay; wherein the coalescent exhibits a boiling point of greater than 240°C and is effective to substantially reduce or eliminate the potential for volatile organic compound release; wherein the fibers are glass fibers and the predetermined size of the fibers is a length of between 0.2 mm and 3 mm; and wherein the intumescent fireproofing composition delivers effective fireproofing and hangability performance, characterised in that the coalescent is selected from a group consisting of 2,2,4-trimethyl-1,3-pentanediolmono(2-methylpropanoate) and bis(2-ethylhexanoate) triethylene glycol. a. a resin; b. a coalescent; c. fibers of a predetermined size; and d. clay;
A method for managing communication links, the method comprising: detecting one or more indicators of an expected service interruption associated with at least one of: a communication link between a relay and a first user equipment, UE, (125, 130); and a communication link between the relay and a communication target (110, 120, 125, 130), the communication target being a network or a second UE; and causing a first message to be transmitted, the first message indicating that the expected service interruption is expected to occur; the first message causing the first UE (125, 130) to initiate one or more actions to reduce or avoid the expected service interruption, wherein, when the communication target is the network and the relay is within coverage of the network, the relay operates as a UE-to-network relay, UNR; and when the communication link between the relay and the network is lost and at least the first UE is still linked in communication with the relay, the relay is caused to operate as a UE in a direct mode of operation with the first UE; or when the communication link between the relay and the network is lost and there are at least two UEs (125, 130) still linked in communication with the relay, causing the relay to operate as a UE-to-UE relay, UUR, for the at least two UEs (125, 130). detecting one or more indicators of an expected service interruption associated with at least one of: a communication link between a relay and a first user equipment, UE, (125, 130); and a communication link between the relay and a communication target (110, 120, 125, 130), the communication target being a network or a second UE; and a communication link between a relay and a first user equipment, UE, (125, 130); and a communication link between the relay and a communication target (110, 120, 125, 130), the communication target being a network or a second UE; and causing a first message to be transmitted, the first message indicating that the expected service interruption is expected to occur; the first message causing the first UE (125, 130) to initiate one or more actions to reduce or avoid the expected service interruption, wherein, when the communication target is the network and the relay is within coverage of the network, the relay operates as a UE-to-network relay, UNR; and when the communication link between the relay and the network is lost and at least the first UE is still linked in communication with the relay, the relay is caused to operate as a UE in a direct mode of operation with the first UE; or when the communication link between the relay and the network is lost and there are at least two UEs (125, 130) still linked in communication with the relay, causing the relay to operate as a UE-to-UE relay, UUR, for the at least two UEs (125, 130).
A guide arrangement, in particular of a machine tool, for guiding a linear movement of a moveable part extending opposite a stationary part along the axis of movement (x, z) and a transverse direction (y) running orthogonally to the latter, comprising a support area (11, 13, 21, 23) assigned to the stationary part and on which the moveable part is slidingly supported against a holding force acting in a distance direction (-z, x) orthogonal to the extension of the moveable part, and a rolling guide (12/22, 14/24, 2.2/32, 2.4/34) with a rolling area in the form of a rolling rail (12,, 14, 2.2, 2.4) assigned to the stationary part, a load originating from the moveable part, having a component orientated in the opposite direction to the holding force and acting on the rolling area causing within the stationary part loading along a loading path leading to the support area, the loading path comprising a path section with a component orientated in the opposite direction to the load component in the distance direction, the guide arrangement being held under adjustable pre-tensioning applied by means of the rolling guide, characterised in that the adjustability of the pre-tensioning is achieved by means of the material thickness of one or more mounting plate(s) (25, 35) connecting the rolling guide to the moveable part and a rolling shoe (22.1, 22.2) conforming to the rolling rail being mounted on the moveable part by means of the/one of the mounting plate(s) and being supported against a counter bearing of given flexibility.
A method for implementing security features of a mobile electronic device comprising a communication card, wherein the method comprises: detecting a first security event by a first security module; wherein the first security event comprises receiving an invalid authorization code; in response to detecting the first security event, implementing a first security operation by the first security module; wherein the first security operation comprises triggering a second security event different from the first security event; in response to the second security event, implementing a second security operation by a second security module different from the first security module; and wherein the second security operation comprises disabling the functionality of the communication card. detecting a first security event by a first security module; wherein the first security event comprises receiving an invalid authorization code; in response to detecting the first security event, implementing a first security operation by the first security module; wherein the first security operation comprises triggering a second security event different from the first security event; in response to the second security event, implementing a second security operation by a second security module different from the first security module; and wherein the second security operation comprises disabling the functionality of the communication card.
A nebulizer dispenser comprising: a breathing element and a nebulizer chamber, the breathing element being configured to be coupled to the nebulizer chamber, the breathing element comprising: a body having a first passage and a first internal end comprising a shaped baffle; a breathing piece coupled to the body and comprising a second passage having a second external opening and a second internal end that is fluidly coupled to the first internal end of the first passage through the shaped baffle; and the nebulizer chamber comprising: an interior volume configured to retain a medication; an inlet configured to receive a pressurized air flow into the interior volume, such that pressurized air flow enters the inlet and entrains the medication as the pressurized air flow moves through a tubular projection of the inlet; an outlet configured to be coupled to the first passage an opening from the interior volume to an ambient environment; and a baffle within the interior volume; wherein during exhalation there is an increase in backpressure within the outlet induced by the diversion within the breathing element of the patient's exhaled breath into the outlet. a body having a first passage and a first internal end comprising a shaped baffle; a breathing piece coupled to the body and comprising a second passage having a second external opening and a second internal end that is fluidly coupled to the first internal end of the first passage through the shaped baffle; and the nebulizer chamber comprising: an interior volume configured to retain a medication; an inlet configured to receive a pressurized air flow into the interior volume, such that pressurized air flow enters the inlet and entrains the medication as the pressurized air flow moves through a tubular projection of the inlet; an outlet configured to be coupled to the first passage an opening from the interior volume to an ambient environment; and a baffle within the interior volume; an interior volume configured to retain a medication; an inlet configured to receive a pressurized air flow into the interior volume, such that pressurized air flow enters the inlet and entrains the medication as the pressurized air flow moves through a tubular projection of the inlet; an outlet configured to be coupled to the first passage an opening from the interior volume to an ambient environment; and a baffle within the interior volume; wherein during exhalation there is an increase in backpressure within the outlet induced by the diversion within the breathing element of the patient's exhaled breath into the outlet.