mhurhangee/patent-ind-claim-en huggingface dataset:
A graphics processing system configured to process primitive fragments using a rendering space which is sub-divided into a plurality of tiles, the system comprising: a plurality of processing engines configured to apply one or both of texturing and shading to primitive fragments; a cache system configured to store graphics data for use in processing the primitive fragments, the cache system including a plurality of cache subsystems , wherein each of said plurality of cache subsystems is coupled to a respective set of a plurality of the processing engines ; and a tile allocation unit configured to operate in a plurality of allocation modes to allocate tiles to the processing engines, wherein the plurality of allocation modes includes: (i) a spatial allocation mode in which groups of spatially adjacent tiles are allocated to the processing engines according to a spatial allocation scheme, said spatial allocation scheme ensuring that each of said groups of spatially adjacent tiles is allocated to a set of processing engines which are coupled to the same cache subsystem , and (ii) a load balancing allocation mode in which tiles are allocated to the processing engines based on computational loads of the processing engines, wherein the tile allocation unit is configured to maintain, for each of the processing engines, a queue of allocated tiles which are allocated for processing by that processing engine, and wherein the tile allocation unit is configured to monitor the state of the queues to determine one of the allocation modes in which tiles are to be allocated to the processing engines. a plurality of processing engines configured to apply one or both of texturing and shading to primitive fragments; a cache system configured to store graphics data for use in processing the primitive fragments, the cache system including a plurality of cache subsystems , wherein each of said plurality of cache subsystems is coupled to a respective set of a plurality of the processing engines ; and a tile allocation unit configured to operate in a plurality of allocation modes to allocate tiles to the processing engines, wherein the plurality of allocation modes includes: (i) a spatial allocation mode in which groups of spatially adjacent tiles are allocated to the processing engines according to a spatial allocation scheme, said spatial allocation scheme ensuring that each of said groups of spatially adjacent tiles is allocated to a set of processing engines which are coupled to the same cache subsystem , and (ii) a load balancing allocation mode in which tiles are allocated to the processing engines based on computational loads of the processing engines, wherein the tile allocation unit is configured to maintain, for each of the processing engines, a queue of allocated tiles which are allocated for processing by that processing engine, and wherein the tile allocation unit is configured to monitor the state of the queues to determine one of the allocation modes in which tiles are to be allocated to the processing engines.
A heater comprising: a heat generating member being conductive and configured to radiate heat rays by being fed with electric power; a tubular member constituted by a metal and accommodating the heat generating member ; and an intermediate member arranged between the heat generating member and the tubular member and constituted by an electrically insulating material, wherein the intermediate member is arranged and/or configured so as not to block, among the heat rays radiated from the heat generating member , at least light having a wavelength of from 1 μm to 2 μm from reaching the tubular member ; and (i) a dimension of (D 2 -D 3 )/2 is in a range of 0.5 mm to 5 mm, or (ii) a difference (D 1 -D 4 ) is three times or less of a difference (D 2 -D 3 ); D 1 being an inner diameter of the tubular member , D 2 being an outer diameter of the intermediate member , D 3 being an inner diameter of the intermediate member , and D 4 being an outer diameter of the heat generating member . a heat generating member being conductive and configured to radiate heat rays by being fed with electric power; a tubular member constituted by a metal and accommodating the heat generating member ; and an intermediate member arranged between the heat generating member and the tubular member and constituted by an electrically insulating material, wherein the intermediate member is arranged and/or configured so as not to block, among the heat rays radiated from the heat generating member , at least light having a wavelength of from 1 μm to 2 μm from reaching the tubular member ; and (i) a dimension of (D 2 -D 3 )/2 is in a range of 0.5 mm to 5 mm, or (ii) a difference (D 1 -D 4 ) is three times or less of a difference (D 2 -D 3 ); (i) a dimension of (D 2 -D 3 )/2 is in a range of 0.5 mm to 5 mm, or (ii) a difference (D 1 -D 4 ) is three times or less of a difference (D 2 -D 3 ); D 1 being an inner diameter of the tubular member , D 2 being an outer diameter of the intermediate member , D 3 being an inner diameter of the intermediate member , and D 4 being an outer diameter of the heat generating member .
An elevator comprising an elongated hoistway (H) having a longitudinal direction; an elevator car arranged to travel in said hoistway (H) along a path extending in said longitudinal direction; and a car speed monitoring arrangement comprising an elongated flexible member tensioned to extend in said hoistway (H) in said longitudinal direction; a first roller , mounted rotatably on the car and tensioned against a lateral side (S1) of the elongated flexible member to roll along the surface thereof when the car moves relative to the elongated flexible member ; a second roller , mounted rotatably on the car and tensioned against a lateral side (S1) of the elongated flexible member to roll along the surface thereof when the car moves relative to the elongated flexible member ; the speed monitoring arrangement being configured to detect rotation speed of the first roller and the rotation speed of the second roller ; and to trigger one or more predefined actions when one or both of these rotation speeds exceeds a limit speed, characterized in that the speed monitoring arrangement is configured to compare these speeds with each other; and to trigger one or more predefined actions when these rotation speeds deviate from each other; wherein said one or more predefined actions include at least actions for stopping movement of the elevator car . an elongated flexible member tensioned to extend in said hoistway (H) in said longitudinal direction; a first roller , mounted rotatably on the car and tensioned against a lateral side (S1) of the elongated flexible member to roll along the surface thereof when the car moves relative to the elongated flexible member ; a second roller , mounted rotatably on the car and tensioned against a lateral side (S1) of the elongated flexible member to roll along the surface thereof when the car moves relative to the elongated flexible member ; the speed monitoring arrangement being configured to detect rotation speed of the first roller and the rotation speed of the second roller ; and to trigger one or more predefined actions when one or both of these rotation speeds exceeds a limit speed, characterized in that the speed monitoring arrangement is configured to compare these speeds with each other; and to trigger one or more predefined actions when these rotation speeds deviate from each other; wherein said one or more predefined actions include at least actions for stopping movement of the elevator car .
A blade containment assembly for a gas turbine engine having a rotor mounted for rotation about an engine axis, the rotor having a set of rotor blades , the blade containment assembly comprising a casing having a first casing member surrounding the set of rotor blades and a second casing member extending axially from the first casing member , the first casing member having: an outer annular wall welded to the second casing member at a weld joint disposed in a blade containment zone of the casing ; and an inner containment ring spaced radially inwardly from the outer annular wall and extending axially from a first location forward of the weld joint to a second location aft of the weld joint in the blade containment zone , characterised in that : the inner containment ring has a radial wall thickness greater than that of the outer annular wall at the weld joint . an outer annular wall welded to the second casing member at a weld joint disposed in a blade containment zone of the casing ; and an inner containment ring spaced radially inwardly from the outer annular wall and extending axially from a first location forward of the weld joint to a second location aft of the weld joint in the blade containment zone ,
A combination of a pulmonary surfactant in a dose of from 100 to 200 mg/kg with budesonide at a dose comprised from 0.1 to 0.5 mg/kg for use for the treatment of evolving bronchopulmonary dysplasia (BPD) in a preterm neonate, wherein the combination is administered once or twice a day from the 2 nd to the 28 th day of life of the preterm neonate.
A cover assembly of a secondary battery , comprising a cover plate comprising a gas vent and a first recess , wherein the first recess is located above the gas vent along a thickness direction (Z) of the cover assembly ; a gas exhaust valve received in the first recess and configured to seal the gas vent and deform in response to an increase in temperature to get out of a state of sealing the gas vent ; and a sealing part arranged between the gas exhaust valve and the cover plate and surrounding the gas vent for sealing a gap between the gas exhaust valve and the cover plate . a cover plate comprising a gas vent and a first recess , wherein the first recess is located above the gas vent along a thickness direction (Z) of the cover assembly ; a gas exhaust valve received in the first recess and configured to seal the gas vent and deform in response to an increase in temperature to get out of a state of sealing the gas vent ; and a sealing part arranged between the gas exhaust valve and the cover plate and surrounding the gas vent for sealing a gap between the gas exhaust valve and the cover plate .
Connection assembly for a traction battery in particular for electric vehicles, comprising at least one busbar and at least one flexible electrical connection element , wherein the busbar and the flexible electrical connection element extend along each other in an overall extension direction , wherein the busbar comprises at least one compensation section in which the busbar extends sideways away from the extension direction , wherein the flexible electrical connection element comprises a compensation section , characterized in that the compensation section of the busbar is located within the compensation section of the flexible electrical connection element , wherein the compensation section of the flexible electrical connection element defines an area that it surrounds and the compensation section of the busbar is located in the area surrounded by the compensation section of the flexible electrical connection element .
A lighting system having an emergency light supply and a bus phase monitor, wherein the bus phase monitor is provided for monitoring a current supply and has monitoring means for monitoring the current supply and communications means for the exchange of data with a control bus , wherein the monitoring means and communications means are preferably connected with each other, wherein the bus phase monitor is designed in such a manner that it can be supplied with energy via the control bus and via the current supply to be monitored, wherein the energy supply of the bus phase monitor is provided during a failure or a drop in the current supply to be monitored via the control bus and otherwise via the current supply to be monitored, wherein the communications means are designed to output a warning or error message via the control bus when the current supply to be monitored fails or drops, in order to activate an emergency light supply, and wherein the bus phase monitor has further monitoring means , which are suitable for monitoring detection-/control means , wherein the detection-/control means are preferably arranged outside of the bus phase monitor .
An assistance device for assisting a practitioner in an interventional hemodynamic measurement on a subject, comprising: a model acquiring unit arranged to acquire a vessel tree model of vessel geometry of a vessel tree of the subject, wherein the vessel tree includes different branches proximal and distal to a stenosis, a position determination unit for determining a set of positions in the vessel tree for hemodynamic measurements based on the vessel tree model complying with a predetermined metric, each position for a hemodynamic measurement indicating where at least one hemodynamic parameter is to be measured, and an output unit for outputting the determined set of positions to the practitioner for stenosis assessment. a model acquiring unit arranged to acquire a vessel tree model of vessel geometry of a vessel tree of the subject, wherein the vessel tree includes different branches proximal and distal to a stenosis, a position determination unit for determining a set of positions in the vessel tree for hemodynamic measurements based on the vessel tree model complying with a predetermined metric, each position for a hemodynamic measurement indicating where at least one hemodynamic parameter is to be measured, and an output unit for outputting the determined set of positions to the practitioner for stenosis assessment.
Facility for supplying subcooled cryogenic liquid to at least one station (P, P1, P2...) carrying out machining operations, comprising a storage tank , tank which contains, under a storage pressure greater than atmospheric pressure, the cryogenic fluid in the liquid phase at the bottom of the tank and in the gaseous phase at the top of the tank, said tank being suitable for supplying said station (P, P1, P2...) with liquid drawn from the bottom of the tank , as well as for being provided with fluid from the outside, and comprising - at least one heat exchanger, submerged in at least one pool of said cryogenic liquid , - means for controlling the level of the or each pool at a predefined level; - a system of pipelines capable of passing through the or each heat exchanger cryogenic liquid coming from the storage tank before the arrival thereof at said machining station(s); - means making it possible to regulate (1, 6, 1 1 , 1 2 , 6 1 , 6 2 ...) the pressure of the cryogenic liquid from the or each submerged exchanger before the arrival thereof at said corresponding machining station; - a valve (1, 1 1 , 1 2 ) located upstream of the arrival of liquid in each one of said exchangers, with each valve being in fluidic communication with said tank, characterised in that said means that make it possible to regulate the pressure of the cryogenic liquid coming from the or each submerged exchanger before the arrival thereof at said corresponding machining station comprise a dedicated pressure sensor (6, 6 1 , 6 2 ...), positioned between the outlet of each exchanger and said machining station (P, P1, P2..) associated with the exchanger considered, and configured to provide the information that it measures to said valve (1, 1 1 , 1 2 ,) located upstream of the arrival of the liquid in the exchanger considered. - at least one heat exchanger, submerged in at least one pool of said cryogenic liquid , - means for controlling the level of the or each pool at a predefined level; - a system of pipelines capable of passing through the or each heat exchanger cryogenic liquid coming from the storage tank before the arrival thereof at said machining station(s); - means making it possible to regulate (1, 6, 1 1 , 1 2 , 6 1 , 6 2 ...) the pressure of the cryogenic liquid from the or each submerged exchanger before the arrival thereof at said corresponding machining station; - a valve (1, 1 1 , 1 2 ) located upstream of the arrival of liquid in each one of said exchangers, with each valve being in fluidic communication with said tank,
Suspension device for presenting objects , comprising a plurality of vertical profiles , a plurality of horizontal profiles and at least one primary carrier , wherein the vertical profiles and the horizontal profiles are assembled to form a grid field , the grid field has a plurality of cells which are each surrounded by segments of two of the horizontal profiles and two of the vertical profiles , the cells of the grid field are open at least with respect to a front side, the primary carrier has a mounting portion designed for detachable hanging in the grid field and a support portion designed for arranging at least one of the objects, wherein the mounting portion of the primary carrier has a hook part and a support part , the hook part of the mounting porting of the primary carrier is shaped to at least partially embrace one of the horizontal profiles , and the support part of the mounting portion of the primary carrier is shaped to rest against one of the vertical profiles , while the hook part of the mounting portion of the primary carrier at least partially embraces the one of the horizontal profiles , characterized in that the support part of the mounting portion of the primary carrier is shaped to at least partially embrace the one of the vertical profiles , so that a lateral movement of the mounting portion of the primary carrier is prevented, while the hook part of the mounting portion of the primary carrier at least partially embraces the one of the horizontal profiles . a plurality of vertical profiles , a plurality of horizontal profiles and at least one primary carrier , wherein the vertical profiles and the horizontal profiles are assembled to form a grid field , the grid field has a plurality of cells which are each surrounded by segments of two of the horizontal profiles and two of the vertical profiles , the cells of the grid field are open at least with respect to a front side, the primary carrier has a mounting portion designed for detachable hanging in the grid field and a support portion designed for arranging at least one of the objects, wherein the mounting portion of the primary carrier has a hook part and a support part , the hook part of the mounting porting of the primary carrier is shaped to at least partially embrace one of the horizontal profiles , and the support part of the mounting portion of the primary carrier is shaped to rest against one of the vertical profiles , while the hook part of the mounting portion of the primary carrier at least partially embraces the one of the horizontal profiles , characterized in that the support part of the mounting portion of the primary carrier is shaped to at least partially embrace the one of the vertical profiles , so that a lateral movement of the mounting portion of the primary carrier is prevented, while the hook part of the mounting portion of the primary carrier at least partially embraces the one of the horizontal profiles .
A high pressure container unit (10; 60) comprising: a container body configured to store high pressure gas; a case that stores the container body inside the case; a pipe (24; 62) that is connected with the container body and extends to an outside of the case ; and a closing member that is configured to close the pipe (24; 62) and allow the high pressure gas stored in the container body to be discharged from the pipe (24; 62) when a given condition is satisfied; characterized in that the high pressure container unit further comprises: a ventilation mechanism (32; 66) that discharges the air inside the case to the outside of the case with the use of the pressure of the discharged high pressure gas when the given condition is satisfied. a container body configured to store high pressure gas; a case that stores the container body inside the case; a pipe (24; 62) that is connected with the container body and extends to an outside of the case ; and a closing member that is configured to close the pipe (24; 62) and allow the high pressure gas stored in the container body to be discharged from the pipe (24; 62) when a given condition is satisfied; characterized in that the high pressure container unit further comprises: a ventilation mechanism (32; 66) that discharges the air inside the case to the outside of the case with the use of the pressure of the discharged high pressure gas when the given condition is satisfied.
A method of measuring percent glycated hemoglobin or a glycated hemoglobin:total hemoglobin ratio in a biological sample with an enzymatic endpoint assay, the method comprising the steps of: (i) measuring absorbance at a first wavelength and a second wavelength in a biological sample containing lysed red blood cells and determining a total hemoglobin concentration (tHb) based on the measurements obtained at these two wavelengths, wherein the first wavelength is 478 nm, and wherein the second wavelength is in a range of from about 689 nm to about 699 nm; (ii) measuring absorbance at a third wavelength and a fourth wavelength in the biological sample containing lysed red blood cells and determining a glycated hemoglobin concentration (A1c) based on the measurements obtained at these two wavelengths, wherein the third wavelength is 658 nm, and wherein the fourth wavelength is in a range of from about 785 nm to about 825 nm; (iii) normalizing the total hemoglobin concentration calculated in (i) utilizing the absorbance measured at the fourth wavelength (cHb) in step (ii) and a turbidity normalization algorithm to substantially remove any turbidity interference from the wavelength measurements of (i), wherein any turbidity interference is substantially reduced to less than +/- about 5% at an intralipid concentration of up to about 1000 mg/dL, and wherein the turbidity normalization algorithm is: Normalized tHb = 1.03 × tHb μ mol/L − cHb × 0 .7899; and (iv) calculating a percent glycated hemoglobin or glycated hemoglobin.-total hemoglobin ratio based on the concentrations calculated in (ii) and (iii). (i) measuring absorbance at a first wavelength and a second wavelength in a biological sample containing lysed red blood cells and determining a total hemoglobin concentration (tHb) based on the measurements obtained at these two wavelengths, wherein the first wavelength is 478 nm, and wherein the second wavelength is in a range of from about 689 nm to about 699 nm; (ii) measuring absorbance at a third wavelength and a fourth wavelength in the biological sample containing lysed red blood cells and determining a glycated hemoglobin concentration (A1c) based on the measurements obtained at these two wavelengths, wherein the third wavelength is 658 nm, and wherein the fourth wavelength is in a range of from about 785 nm to about 825 nm; (iii) normalizing the total hemoglobin concentration calculated in (i) utilizing the absorbance measured at the fourth wavelength (cHb) in step (ii) and a turbidity normalization algorithm to substantially remove any turbidity interference from the wavelength measurements of (i), wherein any turbidity interference is substantially reduced to less than +/- about 5% at an intralipid concentration of up to about 1000 mg/dL, and wherein the turbidity normalization algorithm is: Normalized tHb = 1.03 × tHb μ mol/L − cHb × 0 .7899; and (iv) calculating a percent glycated hemoglobin or glycated hemoglobin.-total hemoglobin ratio based on the concentrations calculated in (ii) and (iii).