mhurhangee/ep-ind-claims huggingface dataset:
A system for treating and monitoring cataracts, the system comprising: a non-lasing LED light source configured to irradiate an eye at a wavelength of 405 nm to treat a cataract; a non-lasing LED excitation light source configured to excite fluorescence in the eye by emitting light of respectively 315 nm; and a photomultiplier detector and associated variable bandpass interference filter configured to detect a fluorescence spectrum stimulated by the excitation light source, thereby to simultaneously monitor emission of individual spectral components of tryptophan photo-products and/or other fluorescent post- translational modifications associated with eye lens proteins; characterised in that light from the LED irradiating light source is directed onto a long pass dichroic beam splitter adapted to reflect the irradiating light along an optical path to a first focusing lens for focussing the light onto the eye, and light from the LED excitation light source is directed onto a long pass dichroic beam splitter adapted to reflect the excitation light along the same optical path to the first focusing lens, so that fluoresced light from the eye received by the first focusing lens is directed along said same optical path through the long pass dichroic beam splitters (12,16) and onto the variable bandpass interference filter. a non-lasing LED light source configured to irradiate an eye at a wavelength of 405 nm to treat a cataract; a non-lasing LED excitation light source configured to excite fluorescence in the eye by emitting light of respectively 315 nm; and a photomultiplier detector and associated variable bandpass interference filter configured to detect a fluorescence spectrum stimulated by the excitation light source, thereby to simultaneously monitor emission of individual spectral components of tryptophan photo-products and/or other fluorescent post- translational modifications associated with eye lens proteins; characterised in that light from the LED irradiating light source is directed onto a long pass dichroic beam splitter adapted to reflect the irradiating light along an optical path to a first focusing lens for focussing the light onto the eye, and light from the LED excitation light source is directed onto a long pass dichroic beam splitter adapted to reflect the excitation light along the same optical path to the first focusing lens, so that fluoresced light from the eye received by the first focusing lens is directed along said same optical path through the long pass dichroic beam splitters (12,16) and onto the variable bandpass interference filter.
Collared ballistic protection vest comprising a torso part and a cylindrically shaped collar part connected by coupling means (4, 4', 4", 4"') to the torso part, wherein collar part and torso part comprise multiple multi-layered material stacks (5, 5', 5", 5"', 6, 6', 6", 6"'), wherein a material stack (5, 6) comprises an aramid fiber or a high-density polyolefin fiber, wherein individual material stacks of the cylindrically collar part (5, 5', 5", 5"') are provided with coupling means (4, 4', 4", 4"') extending outwardly of the cylindrically shaped collar part in the direction of the torso part, wherein said coupling means are tooth-shaped and wherein said coupling means (4, 4', 4", 4"') are inserted between individual material stacks of the torso part (6, 6', 6", 6"') in a tilted position in relation to one another so as to provide a continuity in ballistic resistance between the cylindrically shaped collar part and the torso part.
An air management system, comprising: a plurality of circuits, each circuit comprising an evaporator, a compressor, and a plate heat exchanger, a refrigerant and an expansion valve arranged between the compressor and the plate heat exchanger, the plate heat exchanger being a condenser, wherein the evaporator is configured to transfer heat from an air flow passing through the evaporator to a refrigerant flowing through the evaporator; wherein each circuit in the plurality of circuits is configured to operate independently of the other circuits, wherein the system comprises a modular array having removable module housings and wherein each of the plurality of circuits is provided in a respective module housing and wherein the plurality of circuits are fluidly connected via a hydronic loop, the air management system further comprising: a fluid cooler configured to provide a coolant fluid to the hydronic loop; and a hydronic reheat coil configured to remove heat from the coolant fluid in the hydronic loop and to add heat to the air flow passing through the system, the system being further configured for the fluid cooler or the hydronic reheat coil to receive the warmed coolant fluid from the hydronic loop after its passage through the heat exchanger 18 via one or more modulating valves 28. a plurality of circuits, each circuit comprising an evaporator, a compressor, and a plate heat exchanger, a refrigerant and an expansion valve arranged between the compressor and the plate heat exchanger, the plate heat exchanger being a condenser, wherein the evaporator is configured to transfer heat from an air flow passing through the evaporator to a refrigerant flowing through the evaporator; wherein each circuit in the plurality of circuits is configured to operate independently of the other circuits, wherein the system comprises a modular array having removable module housings and wherein each of the plurality of circuits is provided in a respective module housing and wherein the plurality of circuits are fluidly connected via a hydronic loop, the air management system further comprising: a fluid cooler configured to provide a coolant fluid to the hydronic loop; and a hydronic reheat coil configured to remove heat from the coolant fluid in the hydronic loop and to add heat to the air flow passing through the system, the system being further configured for the fluid cooler or the hydronic reheat coil to receive the warmed coolant fluid from the hydronic loop after its passage through the heat exchanger 18 via one or more modulating valves 28. a fluid cooler configured to provide a coolant fluid to the hydronic loop; and a hydronic reheat coil configured to remove heat from the coolant fluid in the hydronic loop and to add heat to the air flow passing through the system, the system being further configured for the fluid cooler or the hydronic reheat coil to receive the warmed coolant fluid from the hydronic loop after its passage through the heat exchanger 18 via one or more modulating valves 28.
A method performed by a user equipment, UE (70; 80), in a wireless communication system, the method comprising: receiving, from a base station, configuration information for random access, wherein the configuration information includes at least one channel state information-reference signal, CSI-RS, indexes and at least one physical random access channel occasions, ROs, corresponding to each of the at least one CSI-RS indexes; determining ROs associated with the at least one CSI-RS indexes based on the configuration information; and performing a random access according to the ROs, wherein an indexing of the ROs indicated by the at least one ROs is reset per an association pattern period and wherein the association pattern period includes one or more association periods and is associated with a pattern based on a synchronization signal block, SSB, and the ROs. receiving, from a base station, configuration information for random access, wherein the configuration information includes at least one channel state information-reference signal, CSI-RS, indexes and at least one physical random access channel occasions, ROs, corresponding to each of the at least one CSI-RS indexes; determining ROs associated with the at least one CSI-RS indexes based on the configuration information; and performing a random access according to the ROs, wherein an indexing of the ROs indicated by the at least one ROs is reset per an association pattern period and wherein the association pattern period includes one or more association periods and is associated with a pattern based on a synchronization signal block, SSB, and the ROs.
A method for executing an application, comprising: accessing a secure storage element via a host device comprising a computer processor, wherein the host device is operatively coupled to the secure storage element; executing a secure element runtime environment (SERE) residing in the secure storage element, wherein the secure storage element is configured to authenticate a user of the host device for access to the secure storage element; executing, by the computer processor, a hosted execution runtime environment (HERE) on the host device, wherein the HERE is configured to run applications on the host device; initiating a secure communication session between the HERE and the SERE; identifying, by the HERE, a persistent memory image of the HERE within the secure storage element, wherein the SERE is configured to control access to the persistent memory image within the secure storage element; executing, by the computer processor, an application using the HERE; and applying, by the SERE, a first plurality of changes to the persistent memory image, based on the application executing using the HERE. accessing a secure storage element via a host device comprising a computer processor, wherein the host device is operatively coupled to the secure storage element; executing a secure element runtime environment (SERE) residing in the secure storage element, wherein the secure storage element is configured to authenticate a user of the host device for access to the secure storage element; executing, by the computer processor, a hosted execution runtime environment (HERE) on the host device, wherein the HERE is configured to run applications on the host device; initiating a secure communication session between the HERE and the SERE; identifying, by the HERE, a persistent memory image of the HERE within the secure storage element, wherein the SERE is configured to control access to the persistent memory image within the secure storage element; executing, by the computer processor, an application using the HERE; and applying, by the SERE, a first plurality of changes to the persistent memory image, based on the application executing using the HERE.
A wind turbine comprising a tower; a nacelle supported by said tower; a rotor supported by said nacelle; at least one unit to be cooled and arranged in the tower or the nacelle; a tower-mounted heat exchange structure arranged outside the nacelle and tower; and a circuit facilitating flow of a fluid medium between the at least one unit and the heat exchange structure, wherein the heat exchange structure comprises at least one set of panels, said set of panels comprising at least a first panel and a second panel each having a generally planar shape and having a mutual angle therebetween of between 5° and 175°, said first panel and said second panel being arranged in a V-shape extending out from said tower, characterized in that said first panel and said second panel are mounted proximate each other on the same fixation structure with a distance between these of less than half the width of one of said first and second panels.
A coupling member for use with a shunt tube assembly comprising: a body member comprising a first side and a second side, wherein the body member is configured to be disposed about a wellbore tubular (120,520); a first opening disposed through the first side, wherein the first opening is configured to engage a shunt tube; and a second opening disposed through the second side, wherein the second opening is configured to engage a jumper tube, and a third opening disposed through the first side, wherein the third opening is configured to engage a second shunt tube, characterised in that the first and third openings are in fluid communication with the second opening. a body member comprising a first side and a second side, wherein the body member is configured to be disposed about a wellbore tubular (120,520); a first opening disposed through the first side, wherein the first opening is configured to engage a shunt tube; and a second opening disposed through the second side, wherein the second opening is configured to engage a jumper tube, and a third opening disposed through the first side, wherein the third opening is configured to engage a second shunt tube, characterised in that the first and third openings are in fluid communication with the second opening.
A tissue resecting system, comprising: an assembly of tubular first and second members (815, 820), the second member having a resecting element at a distal end thereof; an electrical motor drive and controller configured for moving the second member across a window of the first member; a tachometer adapted to send motor drive rotational signals to the controller; a first controller algorithm adapted to modulate motor voltage in response to tachometer signals (i) to drive the second member at a predetermined speed and (ii) to calculate resistance to driving the second member at the predetermined speed; wherein the tachometer signals are utilized to measure the rotational speed of the motor drive and indicate a reference position of the motor drive; wherein the calculated resistance is determined after a start-up check period of the device or averaged over the start-up check period and for a period of time during surgery; and a second controller algorithm responsive to the calculated resistance to de-energize the motor at a predetermined point to permit momentum to move the second member to a selected stop position; wherein the second controller algorithm is configured to compare the calculated resistance to a look-up table of known resistances correlated with a momentum parameter related to stopping movement of the second member. an assembly of tubular first and second members (815, 820), the second member having a resecting element at a distal end thereof; an electrical motor drive and controller configured for moving the second member across a window of the first member; a tachometer adapted to send motor drive rotational signals to the controller; a first controller algorithm adapted to modulate motor voltage in response to tachometer signals (i) to drive the second member at a predetermined speed and (ii) to calculate resistance to driving the second member at the predetermined speed; wherein the tachometer signals are utilized to measure the rotational speed of the motor drive and indicate a reference position of the motor drive; wherein the calculated resistance is determined after a start-up check period of the device or averaged over the start-up check period and for a period of time during surgery; and a second controller algorithm responsive to the calculated resistance to de-energize the motor at a predetermined point to permit momentum to move the second member to a selected stop position; wherein the second controller algorithm is configured to compare the calculated resistance to a look-up table of known resistances correlated with a momentum parameter related to stopping movement of the second member.
A gripper carriage for transporting a sheet in a sheet transport direction along a sheet transport path (24, 25), wherein at least one radiation dryer (24, 25) is arranged on the sheet transport path, wherein the gripper carriage has a wall and a reflector, characterized in that the reflector is associated with a flank of the wall that is trailing in relation to the sheet transport direction and that the reflector has a reflectivity of at least 40% for the radiation of the radiation dryer (24, 25).
A method of controlling an injection apparatus of an internal combustion engine, comprising: - setting a minimum value (QMIN) of a fuel quantity that can be injected into the internal combustion engine by the injection apparatus with one injection, - preventing the injection apparatus from performing post-injections of fuel quantities having a smaller value than the minimum value (QMIN), wherein the injection apparatus is prevented from performing post-injections of fuel quantities having a smaller value than the minimum value (QMIN) by the steps of: - determining a requested value (QREQ) of the fuel quantity to be injected into the internal combustion engine by means of one post-injection, - determining or calculating a number of power strokes on the basis of the requested value (QREQ) of the fuel quantity, - preventing the injection apparatus from performing post-injections until that number of power strokes have been done, and then - commanding the injection apparatus to perform a post-injection of a fuel quantity having a value which is equal to or greater than the minimum value (QMIN). - setting a minimum value (QMIN) of a fuel quantity that can be injected into the internal combustion engine by the injection apparatus with one injection, - preventing the injection apparatus from performing post-injections of fuel quantities having a smaller value than the minimum value (QMIN), - determining a requested value (QREQ) of the fuel quantity to be injected into the internal combustion engine by means of one post-injection, - determining or calculating a number of power strokes on the basis of the requested value (QREQ) of the fuel quantity, - preventing the injection apparatus from performing post-injections until that number of power strokes have been done, and then - commanding the injection apparatus to perform a post-injection of a fuel quantity having a value which is equal to or greater than the minimum value (QMIN).
A method of evaluating operability of gaseous fuel admission valves of a dual fuel internal combustion engine comprising a plurality of cylinders and at least one gaseous fuel admission valve for each cylinder of the plurality of cylinders, the method comprising: operating (step 312) the dual fuel internal combustion engine on liquid fuel; supplying (step 354) nitrogen as a purge gas to the gaseous fuel admission valves at a pressure above an intake manifold air pressure thereby setting a differential gas pressure across the gaseous fuel admission valves; measuring (step 360), for each cylinder of the plurality of cylinders, a combustion process parameter; and evaluating (step 362) operability of the gaseous fuel admission valves based on the measured combustion process parameters. operating (step 312) the dual fuel internal combustion engine on liquid fuel; supplying (step 354) nitrogen as a purge gas to the gaseous fuel admission valves at a pressure above an intake manifold air pressure thereby setting a differential gas pressure across the gaseous fuel admission valves; measuring (step 360), for each cylinder of the plurality of cylinders, a combustion process parameter; and evaluating (step 362) operability of the gaseous fuel admission valves based on the measured combustion process parameters.
A method of transporting water containing chlorine dioxide, chlorine, chloramines, or hypochlorites through a pipe comprising: forming a polyethylene resin using a Ziegler-Natta catalyst; having a density of from 0.930 g/cc to 0.960 g/cc, and a molecular weight distribution of from 15 to 20 and having a bimodal molecular weight distribution; mixing the bimodal polyethylene resin with an antioxidant, wherein the antioxidant is a thioester, a hindered amine light stabilizer or 1, 3, 5-trimethyl-2,4,6-tris (3,5-di-tert-butyl-4-hydroxybenzyl) benzene to form a resin/antioxidant mixture; extruding pipe from the resin/antioxidant mixture; and flowing water containing chlorine dioxide, chlorine, chloramines, or hypochlorites through the pipe. mixing the bimodal polyethylene resin with an antioxidant, wherein the antioxidant is a thioester, a hindered amine light stabilizer or 1, 3, 5-trimethyl-2,4,6-tris (3,5-di-tert-butyl-4-hydroxybenzyl) benzene to form a resin/antioxidant mixture; extruding pipe from the resin/antioxidant mixture; and flowing water containing chlorine dioxide, chlorine, chloramines, or hypochlorites through the pipe.
A method for separating water into light water, heavy water, and semi-heavy water, the method comprising: reducing a relative pressure of water vapor around a predetermined adsorbent with adsorbed water vapor; and desorbing water vapor from the adsorbent during a period of time when a desorption rate of the light water > a desorption rate of the heavy water and semi-heavy water. reducing a relative pressure of water vapor around a predetermined adsorbent with adsorbed water vapor; and desorbing water vapor from the adsorbent during a period of time when a desorption rate of the light water > a desorption rate of the heavy water and semi-heavy water.
A bone implant, comprising a longitudinal strut, constructed to be disposed between opposing faces of a segmented bone for providing at least one of axial support and torsional strength to the bone, characterised in that the longitudinal strut comprises a plurality of wings (104, 105, 106, 107), each wing having a surface that extends radially from a central axis of the strut, and further wherein the plurality of wings includes a first (106, 107) and a second (104, 105) pair of opposing wings, each opposing wing having a proximal tip and a distal tip, wherein the proximal tip and the distal tip of each of the first pair of opposing wings (106, 107) extends beyond the respective proximal tip and distal tip of each of the second pair of opposing wings (104, 105), such that the proximal tip and distal tip of each of the first pair of opposing wings (106, 107) is structured to fit within a mating hole bored into respective proximal and distal faces of the bone segments and the proximal and distal tip of each of the second pair of opposing wings (104, 105) is structured to abut the faces of respective proximal and distal segments, without penetrating into the faces.
A radiographic image capturing apparatus comprising: a panel unit housing therein a radiation conversion panel (92, 600) for converting radiation into a radiographic image; and a controller disposed on the panel unit, including a panel controller configured to drive control the radiation conversion panel (92, 600) and read the radiographic image from the radiation conversion panel (92, 600); and a power supply configured to supply electric power to the panel controller and the radiation conversion panel (92, 600), wherein the panel unit includes a substantially rectangular first housing permeable to the radiation, the radiation conversion panel (92, 600) being housed in the first housing, one side surface of the first housing is an irradiation surface that is irradiated with the radiation, the controller is housed in a substantially rectangular second housing which is thicker than the first housing or protrudes from the first housing, and the second housing is guided to be slidable on the irradiation surface. a panel unit housing therein a radiation conversion panel (92, 600) for converting radiation into a radiographic image; and a controller disposed on the panel unit, including a panel controller configured to drive control the radiation conversion panel (92, 600) and read the radiographic image from the radiation conversion panel (92, 600); and a power supply configured to supply electric power to the panel controller and the radiation conversion panel (92, 600), wherein the panel unit includes a substantially rectangular first housing permeable to the radiation, the radiation conversion panel (92, 600) being housed in the first housing, one side surface of the first housing is an irradiation surface that is irradiated with the radiation, the controller is housed in a substantially rectangular second housing which is thicker than the first housing or protrudes from the first housing, and the second housing is guided to be slidable on the irradiation surface.