mhurhangee/ep-ind-claims huggingface dataset:
A radio access system (200, 300, 400), comprising: a set of radio access entities (410, 420, 430), in particular a set of nodes providing New Radio user plane and control plane protocol terminations, gNBs, (210, 220, 320) and/or nodes providing E-UTRA user plane and control plane protocol terminations, ng-eNBs, which are interconnected via respective first interfaces (111, 411a, 411b, 411c, Xn-C), wherein each radio access entity of the set of radio access entities (410, 420, 430) comprises a centralized unit, CU (221, 421), and at least one distributed unit, DU (222, 223, 422, 423), coupled to the CU (221, 421) via a second interface (224a, 224b, 412a, 412b, F1); and characterized by a centralized resource controller configured to assign computational resources to the CU (221, 421) and the at least one DU (222, 223, 422, 423) of the radio access entities (410, 420, 430, 210, 220, 320) based on measurement reports received via the first interfaces (111, 411a, 411b, 411c, Xn-C) and/or the second interfaces (224a, 224b, 412a, 412b, F1) from the respective units, wherein the measurement reports comprise information about a computational resource utilization of the respective units (221, 421, 222, 223, 422, 423), wherein each radio access entity of the set of radio access entities (210, 320) comprises a computational elasticity data base, CEDB, coupled via a computational elasticity control, CE-C, interface to the CU of the respective radio access entity, the CEDB providing a common data base for the computational resource utilization of the CU and DUs (222, 223) of the respective radio access entity. a set of radio access entities (410, 420, 430), in particular a set of nodes providing New Radio user plane and control plane protocol terminations, gNBs, (210, 220, 320) and/or nodes providing E-UTRA user plane and control plane protocol terminations, ng-eNBs, which are interconnected via respective first interfaces (111, 411a, 411b, 411c, Xn-C), wherein each radio access entity of the set of radio access entities (410, 420, 430) comprises a centralized unit, CU (221, 421), and at least one distributed unit, DU (222, 223, 422, 423), coupled to the CU (221, 421) via a second interface (224a, 224b, 412a, 412b, F1); and characterized by a centralized resource controller configured to assign computational resources to the CU (221, 421) and the at least one DU (222, 223, 422, 423) of the radio access entities (410, 420, 430, 210, 220, 320) based on measurement reports received via the first interfaces (111, 411a, 411b, 411c, Xn-C) and/or the second interfaces (224a, 224b, 412a, 412b, F1) from the respective units, wherein the measurement reports comprise information about a computational resource utilization of the respective units (221, 421, 222, 223, 422, 423), wherein each radio access entity of the set of radio access entities (210, 320) comprises a computational elasticity data base, CEDB, coupled via a computational elasticity control, CE-C, interface to the CU of the respective radio access entity, the CEDB providing a common data base for the computational resource utilization of the CU and DUs (222, 223) of the respective radio access entity.
An ink composition for variable data lithography printing comprising: an ink vehicle and at least one colorant component suspended in solution in the ink composition; the solution including at least one polyester viscosity modifier; and the solution comprising two or more of at least one dispersant; a thermal stabilizer; and a photo initiator system; wherein the at least one polyester viscosity modifier causes the ink composition for variable lithography printing to achieve a relative lower viscosity at a first temperature and a relative higher viscosity at a second temperature; wherein the first temperature is a heating temperature that is higher than the second temperature, wherein the at least one polyester viscosity modifier is a crystalline polyester resin of formula: wherein M is hydrogen or an alkali metal such as lithium or sodium, and R 1 and R 3 is independently selected from the group consisting of aryl and alkyl; R 2 is independently selected from the group consisting of alkyl and oxyalkylene, and wherein a, b, c, n and p represent random segments of the polymer; and are each about 10 to about 100,000 units. an ink vehicle and at least one colorant component suspended in solution in the ink composition; the solution including at least one polyester viscosity modifier; and the solution comprising two or more of at least one dispersant; a thermal stabilizer; and a photo initiator system; wherein the at least one polyester viscosity modifier causes the ink composition for variable lithography printing to achieve a relative lower viscosity at a first temperature and a relative higher viscosity at a second temperature; wherein the first temperature is a heating temperature that is higher than the second temperature, wherein the at least one polyester viscosity modifier is a crystalline polyester resin of formula: wherein M is hydrogen or an alkali metal such as lithium or sodium, and R 1 and R 3 is independently selected from the group consisting of aryl and alkyl; R 2 is independently selected from the group consisting of alkyl and oxyalkylene, and wherein a, b, c, n and p represent random segments of the polymer; and are each about 10 to about 100,000 units.
A method of manufacturing a solar cell, the method comprising: forming a conductive region on a semiconductor substrate; forming an electrode connected to the conductive region; and post-processing the semiconductor substrate to passivate the semiconductor substrate, wherein the post-processing of the semiconductor substrate comprises a main processing process for heat-treating the semiconductor substrate while providing light to the semiconductor substrate, and wherein a temperature of the main processing is 100°C to 800°C, and the temperature and light intensity of the main processing process satisfy Equation 1, 1750 − 31.8 ⋅ T + 0.16 ⋅ T 2 ≤ I where T is the temperature (°C) of the main processing process, and I is the light intensity(mW/cm 2) of the main processing process, and wherein the main processing process is performed after the forming of the electrode, wherein the method further comprises performing a hydrogen diffusion process for diffusing hydrogen into an inside of the semiconductor substrate, before the main processing process. forming a conductive region on a semiconductor substrate; forming an electrode connected to the conductive region; and post-processing the semiconductor substrate to passivate the semiconductor substrate, wherein the post-processing of the semiconductor substrate comprises a main processing process for heat-treating the semiconductor substrate while providing light to the semiconductor substrate, and wherein a temperature of the main processing is 100°C to 800°C, and the temperature and light intensity of the main processing process satisfy Equation 1, 1750 − 31.8 ⋅ T + 0.16 ⋅ T 2 ≤ I where T is the temperature (°C) of the main processing process, and I is the light intensity(mW/cm 2) of the main processing process, and wherein the main processing process is performed after the forming of the electrode, wherein the method further comprises performing a hydrogen diffusion process for diffusing hydrogen into an inside of the semiconductor substrate, before the main processing process.
Apparatus for determining the concentration of a gas in a container, comprising a holder for accommodating a container, comprising a measuring device for recording a transmission spectrum of the container in a detection region, and comprising an evaluation electronic system connected to the measuring device for determining the concentration of a gas on the basis of at least one recorded transmission spectrum, characterised in that the apparatus comprises a distance sensor, the distance sensor being configured to determine at least one distance between the distance sensor and a container accommodated in the holder in the detection region, the distance sensor being connected to the evaluation electronic system and the evaluation electronic system being configured to take into account the at least one distance determined by the distance sensor when determining the concentration of a gas.
A photoelectric converter (1A-1E) comprising: a mount substrate; an IC circuit provided on the mount substrate; an optical element (4A, 4B) adapted to have a function of converting an electric signal output by the IC circuit to an optical signal and emitting light, or a function of converting a received optical signal to an electric signal and outputting the electric signal to the IC circuit; and a waveguide adapted to effect an optical coupling between the optical element (4A, 4B) and an external optical device, wherein the optical element (4A, 4B) is held on one surface of the mount substrate and has a light emitting surface or a light receiving surface, the light emitting surface or the light receiving surface of the optical element (4A, 4B) being directed to the mount substrate, and wherein the waveguide is provided in the mount substrate along the surface of the mount substrate, the photoelectric converter being characterized in that: the mount substrate is a silicon substrate having a groove for waveguide formation, which is formed by recessing the one surface of the mount substrate, and a mirror portion, which is a side surface surrounding the groove for waveguide formation, and the waveguide includes the mirror portion and an internal waveguide which is provided in the groove for waveguide formation so as to extend from the mirror portion along the one surface of the mount substrate, and the internal waveguide is constituted by a material for waveguide formation filling the groove for waveguide formation, and the optical element (4A, 4B) is positioned opposite to the mirror portion over the internal waveguide and allows a light to be incident to the material for waveguide formation via the mirror portion. the mount substrate is a silicon substrate having a groove for waveguide formation, which is formed by recessing the one surface of the mount substrate, and a mirror portion, which is a side surface surrounding the groove for waveguide formation, and the waveguide includes the mirror portion and an internal waveguide which is provided in the groove for waveguide formation so as to extend from the mirror portion along the one surface of the mount substrate, and the internal waveguide is constituted by a material for waveguide formation filling the groove for waveguide formation, and the optical element (4A, 4B) is positioned opposite to the mirror portion over the internal waveguide and allows a light to be incident to the material for waveguide formation via the mirror portion.
A combustion apparatus comprising: a. a combustion chamber; b. at least one burner located so as to define a combustion site within the combustion chamber; c. a fuel input conduit for supplying fuel to the burner; d. a combustion gas input conduit for supplying combustion gas to a first stage combustion site; e. an overfire gas input conduit for supplying overfire gas to a second stage combustion site; and f. gas supply means; wherein the gas supply means is adapted to supply gas switchably between: a first mode of operation wherein air is supplied in suitable proportion to both the combustion gas input conduit and the overfire gas input conduit; and a second mode of operation wherein an oxygen containing gas other than air is supplied to the combustion gas input conduit, characterised in that in said second mode of operation substantially no gas is supplied to the overfire gas input conduit. a. a combustion chamber; b. at least one burner located so as to define a combustion site within the combustion chamber; c. a fuel input conduit for supplying fuel to the burner; d. a combustion gas input conduit for supplying combustion gas to a first stage combustion site; e. an overfire gas input conduit for supplying overfire gas to a second stage combustion site; and f. gas supply means; wherein the gas supply means is adapted to supply gas switchably between: a first mode of operation wherein air is supplied in suitable proportion to both the combustion gas input conduit and the overfire gas input conduit; and a second mode of operation wherein an oxygen containing gas other than air is supplied to the combustion gas input conduit, characterised in that in said second mode of operation substantially no gas is supplied to the overfire gas input conduit. a first mode of operation wherein air is supplied in suitable proportion to both the combustion gas input conduit and the overfire gas input conduit; and a second mode of operation wherein an oxygen containing gas other than air is supplied to the combustion gas input conduit, characterised in that in said second mode of operation substantially no gas is supplied to the overfire gas input conduit.
A method for generating a load of a wireless power receiver for detecting the PRU in a wireless charging system, the method comprising: receiving a wireless power signal from a wireless power transmitter; rectifying the received wireless power signal into a direct current signal; and generating a load for detecting the PRU by controlling a current flowing across a resistor connected in parallel with a load charged with power of the DC signal, characterised in that the current flowing across the resistor is controlled by a controller driven by the DC signal, and the controller performs ON/OFF control on the current flowing across the resistor in a predetermined pattern. receiving a wireless power signal from a wireless power transmitter; rectifying the received wireless power signal into a direct current signal; and generating a load for detecting the PRU by controlling a current flowing across a resistor connected in parallel with a load charged with power of the DC signal, characterised in that the current flowing across the resistor is controlled by a controller driven by the DC signal, and the controller performs ON/OFF control on the current flowing across the resistor in a predetermined pattern.
A polyol composition for molding a flexible polyurethane foam, comprising: a polyol component; a catalyst; a foam stabilizer; a foaming agent; and a compatibilizing agent, wherein the compatibilizing agent is an anionic surfactant having a sodium salt of a naphthalenesulfonic acid formalin condensate, and wherein the compatibilizing agent is contained in an amount of 0.1 to 5 mass% with respect to the polyol component. a polyol component; a catalyst; a foam stabilizer; a foaming agent; and a compatibilizing agent, wherein the compatibilizing agent is an anionic surfactant having a sodium salt of a naphthalenesulfonic acid formalin condensate, and wherein the compatibilizing agent is contained in an amount of 0.1 to 5 mass% with respect to the polyol component.
A pouring spout fitment for a flexible container comprising: a hollow rigid member comprising a top end having a discharge opening and a base end having a base end opening, an inner surface defining an inner space extending between the discharge opening and the base end opening, and an outer surface, wherein the outer surface comprises friction fit attachment means attached to a hollow canoe portion to be attached to an inner surface of the flexible container; an extendible spout at least partially disposed in the hollow rigid member and connected to the hollow rigid member, the extendible spout comprising: a proximal end and a proximal opening, the proximal end connected to the base end of the hollow rigid member, a distal end and a distal opening, the distal end configured to extend from and retract at least partially into the hollow rigid member, a discharge passage that extends from the proximal opening to the distal opening, and a removable safety seal configured to seal the distal end of the extendible spout, thereby removably sealing the discharge passage, wherein the extendible spout is configured to dispense a pourable material from the flexible container through the distal opening when the hollow rigid member is attached to the hollow canoe portion. a hollow rigid member comprising a top end having a discharge opening and a base end having a base end opening, an inner surface defining an inner space extending between the discharge opening and the base end opening, and an outer surface, wherein the outer surface comprises friction fit attachment means attached to a hollow canoe portion to be attached to an inner surface of the flexible container; an extendible spout at least partially disposed in the hollow rigid member and connected to the hollow rigid member, the extendible spout comprising: a proximal end and a proximal opening, the proximal end connected to the base end of the hollow rigid member, a distal end and a distal opening, the distal end configured to extend from and retract at least partially into the hollow rigid member, a discharge passage that extends from the proximal opening to the distal opening, and a proximal end and a proximal opening, the proximal end connected to the base end of the hollow rigid member, a distal end and a distal opening, the distal end configured to extend from and retract at least partially into the hollow rigid member, a discharge passage that extends from the proximal opening to the distal opening, and a removable safety seal configured to seal the distal end of the extendible spout, thereby removably sealing the discharge passage, wherein the extendible spout is configured to dispense a pourable material from the flexible container through the distal opening when the hollow rigid member is attached to the hollow canoe portion.
A medical product configured for use in a medical system comprising a first subsystem having a first connection portion and a second subsystem having a second connection portion, at least one of the subsystems containing a medical fluid, the medical product comprising a connector configured to connect the first and second subsystems (1, 2) to each other to permit transport of the medical fluid from one of the subsystem to the other subsystem, the connector comprising a valve device, a first connection pipe connected to the valve device and configured to be connected to the first connection portion of the first subsystem, and a second connection pipe connected to the valve device and configured to be connected to the second connection portion of the second subsystem, the valve device comprising a first part and a second part, which are movable in relation to each other to permit an opening movement from a closed stable position, preventing fluid communication between the first connection pipe and the second connection pipe, and an open stable position, forming a channel (23; 73; 103) permitting fluid communication between the first connection pipe and the second connection pipe, wherein the medical product comprises a blocking member (108, 128), provided on the valve device, configured, in a blocking state, to prevent the opening movement from the closed stable position to the open stable position, and further configured to permit changing of the blocking state of the blocking member (108, 128) to a non-blocking state permitting the opening movement from the closed stable position to the open stable position, wherein the first part comprises a first pipe, which has an outer end portion forming the first connection pipe and an inner end portion having a closed end but at least one lateral opening, and the second part comprises a second pipe, which forms the second connection pipe and is configured to receive the first pipe, wherein the first pipe is movable along a longitudinal axis (x") in the second pipe to permit the opening movement between the closed stable position, in which the lateral opening is located opposite to an inner wall of the second pipe, and the open stable position, characterized in that in the open stable position the inner end portion and the lateral opening of the first pipe protrude from outer end portion of the second pipe, and wherein the valve device comprises a membrane closing the channel in the closed stable position, and breaking means configured to break the membrane during the opening movement in order to open the channel.
A motor vehicle comprising: - two upper struts, which project forward from a passenger compartment along respective directions which are substantially parallel to a longitudinal direction of advance of the motor vehicle; - two lower struts, which are arranged under said upper struts and extend along respective substantially rectilinear axes; said substantially rectilinear axes, in non-deformed condition, being inclined from the bottom upwards, if considered starting from said passenger compartment; said lower struts comprising respective intermediate portions having a variation in cross section, defining a reduction in flexural strength about a horizontal direction, transverse to said substantially rectilinear axes; - a cross member fixed to the rear ends of said lower struts; - two connection members that are substantially vertical and connect said cross member to respective walls of said upper struts; - release means to uncouple said cross member from said upper struts; said release means being defined by breakable zones, that define part of said connection members and/or of said walls and are designed so as to break upon exceeding a given load threshold; - a powertrain; - support means (34,35,36) that support said powertrain; characterised in that said support means (34,35,36) are distinct from said connection members, connect said powertrain to said cross member and to said upper struts and are breakable in the event of a front crash of the motor vehicle. - two upper struts, which project forward from a passenger compartment along respective directions which are substantially parallel to a longitudinal direction of advance of the motor vehicle; - two lower struts, which are arranged under said upper struts and extend along respective substantially rectilinear axes; said substantially rectilinear axes, in non-deformed condition, being inclined from the bottom upwards, if considered starting from said passenger compartment; said lower struts comprising respective intermediate portions having a variation in cross section, defining a reduction in flexural strength about a horizontal direction, transverse to said substantially rectilinear axes; - a cross member fixed to the rear ends of said lower struts; - two connection members that are substantially vertical and connect said cross member to respective walls of said upper struts; - release means to uncouple said cross member from said upper struts; said release means being defined by breakable zones, that define part of said connection members and/or of said walls and are designed so as to break upon exceeding a given load threshold; - a powertrain; - support means (34,35,36) that support said powertrain;
A lighting device for a motor vehicle, having a semiconductor source and a reflector, wherein the lighting device has a fiber-optical light guide receiving light from the semiconductor source and aiming it at the reflector, wherein the reflector has a basic shape created by pivoting of a parabolic portion about an imaginary axis, and the light guide has a plane light input face receiving light from the semiconductor source and a curved light output face, which is defined by a circular arc, characterized in that the center point of the circle belonging to the circular arc is defined by the semiconductor source located just in front of the light input face of the light guide; and that the light guide and the reflector are located relative to one another in such a way, and the light output face of the light guide is curved in such a way, that a focal line of the reflector, which line occurs upon pivoting as a result of the motion of the focal point of the parabolic portion, is located in the light output face.