mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: registering, by a discovery service executing on one or more computing systems, a display device of a plurality of display devices, the registration based on a unique identifier of the display device ; assigning, by the discovery service , the display device to a discovery group, the discovery group associating the display device with other display devices of the plurality of display devices that are permitted by the discovery service to connect to an input device ; generating, by the discovery service , a discovery key code unique to the display device within the discovery group; assigning, by the discovery service , the discovery key code to the display device ; transmitting, by the discovery service , the discovery key code to the display device for display on the display device ; searching, by the discovery service , for one or more display devices of the plurality of display devices that are available to connect to the input device ; determining a quantity of available display devices based on the searching; and determining a discovery key code length based on the quantity of available display devices . registering, by a discovery service executing on one or more computing systems, a display device of a plurality of display devices, the registration based on a unique identifier of the display device ; assigning, by the discovery service , the display device to a discovery group, the discovery group associating the display device with other display devices of the plurality of display devices that are permitted by the discovery service to connect to an input device ; generating, by the discovery service , a discovery key code unique to the display device within the discovery group; assigning, by the discovery service , the discovery key code to the display device ; transmitting, by the discovery service , the discovery key code to the display device for display on the display device ; searching, by the discovery service , for one or more display devices of the plurality of display devices that are available to connect to the input device ; determining a quantity of available display devices based on the searching; and determining a discovery key code length based on the quantity of available display devices .
A system for laying a flexible product from a storage area below a deck of a vessel, the system comprising: an inline quadrant above the deck for guiding flexible product to a portside or starboard side of the vessel, the inline quadrant being provided with a portside entrance and a starboard side entrance; a highway with a highway portside guide and a highway starboard side guide for guiding the flexible product from a below deck position to an above deck position on either the portside or the starboard side, the highway extending to the portside entrance and the starboard side entrance of the inline quadrant; and characterized by : a smart spooling system to guide flexible product between the storage area and to either the portside guide or the starboard side guide of the highway, wherein the smart spooling system comprises: a loading arm for receiving the flexible product from the storage system and directing it to the highway running below the storage system; and a vertical bend for directing the flexible product from the highway running below the storage system to either the portside guide or the starboard side guide of the highway. an inline quadrant above the deck for guiding flexible product to a portside or starboard side of the vessel, the inline quadrant being provided with a portside entrance and a starboard side entrance; a highway with a highway portside guide and a highway starboard side guide for guiding the flexible product from a below deck position to an above deck position on either the portside or the starboard side, the highway extending to the portside entrance and the starboard side entrance of the inline quadrant; and characterized by : a smart spooling system to guide flexible product between the storage area and to either the portside guide or the starboard side guide of the highway, wherein the smart spooling system comprises: a loading arm for receiving the flexible product from the storage system and directing it to the highway running below the storage system; and a vertical bend for directing the flexible product from the highway running below the storage system to either the portside guide or the starboard side guide of the highway. a loading arm for receiving the flexible product from the storage system and directing it to the highway running below the storage system; and a vertical bend for directing the flexible product from the highway running below the storage system to either the portside guide or the starboard side guide of the highway.
Electrically and thermally conductive element comprising: - a high-purity aluminum wire or tape , - a strip of pyrolytic graphite or graphene extending along the aluminum tape , said wire or tape and strip being encapsulated together in a sheath of an electrically insulating material. - a high-purity aluminum wire or tape , - a strip of pyrolytic graphite or graphene extending along the aluminum tape ,
Electric fluid pump having a pump shaft with an axis and having an electric pump drive which is designed as a wet section and has a rotor arranged on the shaft and a stator surrounding said rotor across an annular gap, wherein the rotor is provided with means which, during rotary operation thereof, produce an at least partially axially directed fluid flow in the wet section of the pump drive wherein the means for producing the at least partially axially directed fluid flow comprise a rotor cavity allowing an axial flow through the rotor wherein openings for the cavity are formed on the two rotor ends, wherein an opening on one end is situated radially further out than an opening on the opposite end, wherein the openings are formed by holes in the rotor end walls, wherein the rotor has a cylindrical shape and has a multiplicity of cavities, which are arranged at circumferential spacings, are separated from one another by webs and are each provided with an opening at one end, characterized in that the rotor has cavities triangular in cross section separated from one another by spoke-shaped webs.
A radiation-emitting set , suitable for a 3D printing apparatus, wherein the radiation-emitting set comprises a plurality of radiation-emitting units which are mounted on a holding means and wherein each radiation-emitting unit is mounted on the holding means at a defined angle of rotation alpha and the radiation-emitting units have different or the same defined angle(s) of rotation alpha or one or more radiation-emitting units have one defined angle of rotation alpha of group 1 and one or more radiation-emitting units have another defined angle of rotation alpha of group 2 and the radiation-emitting units are combined with one or more cooling means, and wherein the angle of rotation alpha in the peripheral area of the radiation-emitting set is different to the interior area of the radiation-emitting set and wherein the radiation intensity in the peripheral area of the radiation-emitting set(s) is set higher than in the interior area of the radiation-emitting set.
A display panel comprising: a substrate and a plurality of pixels disposed on the substrate ; wherein each pixel comprises a pixel circuit disposed on the substrate ; the display panel further comprises a pixel defining layer covering the pixel circuit ; a surface of the pixel defining layer facing away from the pixel circuit is provided with a plurality of grooves ; the plurality of grooves are in one-to-one correspondence with the plurality of pixels ; each of the grooves is provided with a light emitting diode electrically connected to the pixel circuit ; characterized by a plurality of walls crossing the groove are disposed separately in the groove ; each wall extends from a side of the groove to an opposite side of the groove ; the walls are in the same layer as the pixel defining layer , and the walls are of the same material as the pixel defining layer ; and any two of the walls extend in the same direction, and a distance between two directly adjacent walls is fixed; alternatively, the plurality of walls comprise first sub-walls and second sub-walls respectively extend horizontally and vertically; the first sub-walls and the second sub-walls intersect to define a plurality of enclosed areas (B) arranged in a matrix; two directly adjacent enclosed areas (B) are equal in area. each pixel comprises a pixel circuit disposed on the substrate ; the display panel further comprises a pixel defining layer covering the pixel circuit ; a surface of the pixel defining layer facing away from the pixel circuit is provided with a plurality of grooves ; the plurality of grooves are in one-to-one correspondence with the plurality of pixels ; each of the grooves is provided with a light emitting diode electrically connected to the pixel circuit ; characterized by a plurality of walls crossing the groove are disposed separately in the groove ; each wall extends from a side of the groove to an opposite side of the groove ; the walls are in the same layer as the pixel defining layer , and the walls are of the same material as the pixel defining layer ; and any two of the walls extend in the same direction, and a distance between two directly adjacent walls is fixed; alternatively, the plurality of walls comprise first sub-walls and second sub-walls respectively extend horizontally and vertically; the first sub-walls and the second sub-walls intersect to define a plurality of enclosed areas (B) arranged in a matrix; two directly adjacent enclosed areas (B) are equal in area.
A method for preparing red blood cells (RBCs) comprising: separating RBCs from whole blood to form packed RBCs; reducing oxygen and carbon dioxide from said packed RBCs to form oxygen and carbon dioxide-reduced packed RBCs; inactivating pathogens in said packed RBCs with riboflavin and light therapy after said removing oxygen and carbon dioxide; storing said oxygen and carbon dioxide-reduced packed RBCs in an anaerobic storage environment; and irradiating said packed RBCs with gamma or x-ray irradiation, wherein said irradiation occurs before, during, or after said storing; wherein said reducing oxygen and carbon dioxide from said packed RBCs comprises passing said packed RBCs through an oxygen and carbon dioxide depletion device, wherein said irradiation before storing occurs after said reducing oxygen and carbon dioxide. separating RBCs from whole blood to form packed RBCs; reducing oxygen and carbon dioxide from said packed RBCs to form oxygen and carbon dioxide-reduced packed RBCs; inactivating pathogens in said packed RBCs with riboflavin and light therapy after said removing oxygen and carbon dioxide; storing said oxygen and carbon dioxide-reduced packed RBCs in an anaerobic storage environment; and irradiating said packed RBCs with gamma or x-ray irradiation, wherein said irradiation occurs before, during, or after said storing; wherein said reducing oxygen and carbon dioxide from said packed RBCs comprises passing said packed RBCs through an oxygen and carbon dioxide depletion device, wherein said irradiation before storing occurs after said reducing oxygen and carbon dioxide.
Optical arrangement for EUV lithography, comprising: at least one component having a main body with at least one surface region (30, 30a,b) which is exposed to activated hydrogen during operation of the optical arrangement , wherein the main body contains at least one material which forms at least one volatile hydride upon contact of the surface region (30, 30a,b) with the activated hydrogen, characterized in that at the surface region (30, 30a,b) noble metal ions are implanted into the main body .
A silencer device for a flue pipe equipping a boiler , wherein said device (1, 1', 1") includes a central tube provided with an upstream extension suitable for being connected to an upstream flue pipe section (2 a ), and with a downstream extension suitable for being connected to a downstream flue pipe section (2 b ), wherein said central tube includes perforations and is surrounded by an outer tube to define between each other an acoustic absorption chamber , wherein said outer tube is connected to said central tube by an upstream end wall and by a downstream end wall that delimit the length ( L ) of said acoustic absorption chamber , the latter being at least partially filled with an acoustic absorptive material , wherein said central tube includes an upstream section provided with perforations , which extends from said upstream end wall or approximately from said upstream end wall , up to an intermediate area between said upstream and downstream end walls, wherein said upstream section (5 a ) provided with perforations is extended by a solid downstream section (5 b ), devoid or almost devoid of perforations, extending from said intermediate area to said downstream end wall , wherein said acoustic absorptive material fills the thickness of the acoustic absorption chamber , between the central tube and the outer tube , and wherein said acoustic absorptive material is delimited by an upstream end edge (14 c ), arranged in said acoustic absorption chamber near said upstream end wall , or in rest against the latter, characterized in that said acoustic absorptive material is also delimited by a downstream end edge (14 d ), arranged upstream from said intermediate area , the space (11 b ) of said acoustic absorption chamber between said downstream end edge (14 d ) of said acoustic absorptive material and said downstream end wall , consisting of a cavity, an upstream portion (11 b' ) of which surrounds a perforated downstream portion (5 a" ) of said central tube , and a downstream portion (11 b" ) of which surrounds a non-perforated downstream portion (5 b ) of said central tube .
A swirler for creating a fuel/air mix, the swirler having a central axis and comprising: - an annular array of vanes positioned on a base plate and extending around the central axis ; - an annular closing plate located atop the annular array of vanes ; - a plurality of mixing channels formed by the annular array of vanes , the base plate and the annular closing plate for mixing the fuel and the air , at least one mixing channel of the plurality of mixing channels defined by opposing walls of two adjacent vanes of the plurality of vanes , wherein at least one of the opposing walls comprises at least one primary side injection opening adapted to eject a stream of fuel into the mixing channel , and at least one secondary side injection opening corresponding to the primary side injection opening and adapted to eject a jet of fuel into the mixing channel , wherein the secondary side injection opening is positioned on the wall of the vane such that the jet ejected from the secondary side injection opening creates turbulence , within the mixing channel , in the stream ejected from the primary side injection opening , characterised in that a distance of the secondary side injection opening from the primary side injection opening is between 10% and 20% or between 5% and 10% of a length of the wall measured along the wall from a radially inner thin end of the vane to a radially outer broad end of the vane , wherein a size of the primary side injection opening is greater than a size of the secondary side injection opening , with the same supply pressure of fuel, a greater velocity of the jet is achieved. - an annular array of vanes positioned on a base plate and extending around the central axis ; - an annular closing plate located atop the annular array of vanes ; - a plurality of mixing channels formed by the annular array of vanes , the base plate and the annular closing plate for mixing the fuel and the air , at least one mixing channel of the plurality of mixing channels defined by opposing walls of two adjacent vanes of the plurality of vanes , wherein at least one of the opposing walls comprises at least one primary side injection opening adapted to eject a stream of fuel into the mixing channel , and at least one secondary side injection opening corresponding to the primary side injection opening and adapted to eject a jet of fuel into the mixing channel , wherein the secondary side injection opening is positioned on the wall of the vane such that the jet ejected from the secondary side injection opening creates turbulence , within the mixing channel , in the stream ejected from the primary side injection opening , characterised in that a distance of the secondary side injection opening from the primary side injection opening is between 10% and 20% or between 5% and 10% of a length of the wall measured along the wall from a radially inner thin end of the vane to a radially outer broad end of the vane , wherein a size of the primary side injection opening is greater than a size of the secondary side injection opening , with the same supply pressure of fuel, a greater velocity of the jet is achieved.
A method of constructing a merge candidate list for video coding, comprising: generating a merge candidate list using available spatial and temporal merge candidates; obtaining motion information using a merge index and the merge candidate list; generating a prediction block using the motion information; inverse-quantizing a quantized block using a quantization parameter to generate a transform block; inverse-transforming the transform block to generate a residual block; and generating a reconstructed block using the prediction block and the residual block, wherein if a current prediction unit is a second prediction unit partitioned by asymmetric partitioning, the spatial merge candidate corresponding to a first prediction unit partitioned by the asymmetric partitioning is set as unavailable, and wherein the quantization parameter is generated using a quantization parameter predictor and a differential quantization parameter, and the quantization parameter predictor is generated by averaging the first two available quantization parameters in an order of a left quantization parameter, an above quantization parameter and a previous quantization parameter if two or more quantization parameters are available. generating a merge candidate list using available spatial and temporal merge candidates; obtaining motion information using a merge index and the merge candidate list; generating a prediction block using the motion information; inverse-quantizing a quantized block using a quantization parameter to generate a transform block; inverse-transforming the transform block to generate a residual block; and generating a reconstructed block using the prediction block and the residual block, wherein if a current prediction unit is a second prediction unit partitioned by asymmetric partitioning, the spatial merge candidate corresponding to a first prediction unit partitioned by the asymmetric partitioning is set as unavailable, and wherein the quantization parameter is generated using a quantization parameter predictor and a differential quantization parameter, and the quantization parameter predictor is generated by averaging the first two available quantization parameters in an order of a left quantization parameter, an above quantization parameter and a previous quantization parameter if two or more quantization parameters are available.
A wound care system comprising: a power unit ; a processor coupled to the power unit ; an ultra-violet light-emitting diode array electrically coupled to the processor ; a thermoelectric element thermally exposed to the ultra-violet light-emitting diode array ; a probe optically coupled to the ultra-violet light-emitting diode array ; and wherein the thermoelectric element is configured to absorb excess heat from the ultra-violet light-emitting diode array and to transfer the excess heat to an exhaust thereby optimizing the ultra-violet light emitting diode array , further comprising a pump electrically coupled to the processor and fluidly coupled to the probe ; and an exudate bottle fluidly coupled to the pump ; wherein the pump is configured to apply vacuum pressure to a wound area , and the pump is adapted to operate in at least one of a high vaccum state and a low vacuum state; wherein the system further comprises a pump solenoid and a vent solenoid and a probe solenoid fluidly coupled to the pump and electrically coupled to the processor wherein the probe solenoid 236 is fluidly coupled to the pump solenoid 234 and the exudate bottle 240, wherein the processor is configured to maintain a desired level of vacuum via selective opening and closing of a pump solenoid and a vent solenoid and wherein vacuum pressure is applied to the wound area via selective actuation of the pump solenoid , the probe solenoid , and the vent solenoid . a power unit ; a processor coupled to the power unit ; an ultra-violet light-emitting diode array electrically coupled to the processor ; a thermoelectric element thermally exposed to the ultra-violet light-emitting diode array ; a probe optically coupled to the ultra-violet light-emitting diode array ; and wherein the thermoelectric element is configured to absorb excess heat from the ultra-violet light-emitting diode array and to transfer the excess heat to an exhaust thereby optimizing the ultra-violet light emitting diode array , further comprising a pump electrically coupled to the processor and fluidly coupled to the probe ; and an exudate bottle fluidly coupled to the pump ; wherein the pump is configured to apply vacuum pressure to a wound area , and the pump is adapted to operate in at least one of a high vaccum state and a low vacuum state; wherein the system further comprises a pump solenoid and a vent solenoid and a probe solenoid fluidly coupled to the pump and electrically coupled to the processor wherein the probe solenoid 236 is fluidly coupled to the pump solenoid 234 and the exudate bottle 240, wherein the processor is configured to maintain a desired level of vacuum via selective opening and closing of a pump solenoid and a vent solenoid and wherein vacuum pressure is applied to the wound area via selective actuation of the pump solenoid , the probe solenoid , and the vent solenoid .