mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: as part of an image rendering process being executed on a processing device: buffering into memory an array whose index values define a plurality of material property values for an image at a first resolution, wherein values in said array are ordered such that any two values that are to be blended are adjacent to one another within the array; determining a single value that is used to identify a first material property value and a second material property value from the array, the first material property value and the second material property value being material property values to be blended and being adjacent to one another in the array; computing a blending control value based on said determined single value, and computing a blended material property value between the first material property value and the second material property value, the degree of blending between the first material property value and the second material property being controlled by the blending control value; wherein the method is performed by a shader of the processing device which is rendering frames of a video game during execution of the game using the blended material property value, thereby generating an image for the video game at a second resolution which is greater than the first resolution. buffering into memory an array whose index values define a plurality of material property values for an image at a first resolution, wherein values in said array are ordered such that any two values that are to be blended are adjacent to one another within the array; determining a single value that is used to identify a first material property value and a second material property value from the array, the first material property value and the second material property value being material property values to be blended and being adjacent to one another in the array; computing a blending control value based on said determined single value, and computing a blended material property value between the first material property value and the second material property value, the degree of blending between the first material property value and the second material property being controlled by the blending control value; wherein the method is performed by a shader of the processing device which is rendering frames of a video game during execution of the game using the blended material property value, thereby generating an image for the video game at a second resolution which is greater than the first resolution.
A fluid transfer coupling arrangement comprising: a housing ; a hollow shaft arranged in the housing and rotatable about an axis, the hollow shaft provided by a wall having radially spaced interior and exterior surfaces , and a first passage extending through the wall and configured to communicate fluid between the interior and exterior surfaces ; a fluid coupling sealed about the exterior surface and the first passage, the fluid coupling providing a second passage in fluid communication with the first passage, the fluid coupling including a locating feature configured to permit radial movement of the fluid coupling relative to the housing , and characterized by the housing including a hole , and the fluid coupling including a port in fluid communication with the second passage, a transfer tube extending through the hole and removably received in the port , the transfer tube providing the locating feature. a housing ; a hollow shaft arranged in the housing and rotatable about an axis, the hollow shaft provided by a wall having radially spaced interior and exterior surfaces , and a first passage extending through the wall and configured to communicate fluid between the interior and exterior surfaces ; a fluid coupling sealed about the exterior surface and the first passage, the fluid coupling providing a second passage in fluid communication with the first passage, the fluid coupling including a locating feature configured to permit radial movement of the fluid coupling relative to the housing , and characterized by the housing including a hole , and the fluid coupling including a port in fluid communication with the second passage, a transfer tube extending through the hole and removably received in the port , the transfer tube providing the locating feature.
A System of electric field detectors provided in an environment, comprising: a first electric field detector connected with first field detection circuitry configured to detect a voltage in an electric field in the environment which meets or exceeds a voltage threshold; a second electric field detector (20b-d) connected with second field detection circuitry configured to detect a voltage in an electric field in the environment which meets or exceeds a voltage threshold; a warning module operably connected with the first field detection circuitry and configured to provide a warning to operators based on the voltage meeting or exceeding the voltage threshold; a communication module operably connected with the first field detection circuitry and configured to wirelessly send a warning notification to the second electric field detector, and configured to wirelessly receive a warning notification from the second electric field detector, and wherein the second field detection circuitry is configured to communicate an indication of a warning notification based on voltage meeting or exceeding the voltage threshold to the communication module of the first electric field detector and in response, the warning module of the first electric field detector is configured to provide the warning to the operators. a first electric field detector connected with first field detection circuitry configured to detect a voltage in an electric field in the environment which meets or exceeds a voltage threshold; a second electric field detector (20b-d) connected with second field detection circuitry configured to detect a voltage in an electric field in the environment which meets or exceeds a voltage threshold; a warning module operably connected with the first field detection circuitry and configured to provide a warning to operators based on the voltage meeting or exceeding the voltage threshold; a communication module operably connected with the first field detection circuitry and configured to wirelessly send a warning notification to the second electric field detector, and configured to wirelessly receive a warning notification from the second electric field detector, and wherein the second field detection circuitry is configured to communicate an indication of a warning notification based on voltage meeting or exceeding the voltage threshold to the communication module of the first electric field detector and in response, the warning module of the first electric field detector is configured to provide the warning to the operators.
A platform for driving at least one industrial field device in an industrial plant with a control software , comprising an execution environment in which the control software is able to run, as well as an external interface for communication between the control software and the field device , wherein the execution environment comprises virtual hardware that, from the perspective of the control software , behaves like the field device , wherein a brokering unit of the platform is switched between the virtual hardware and the external interface and is configured to translate data exchanged between the control software and the virtual hardware bidirectionally for communication with the field device via the external interface , wherein the control software was written for a concrete control unit and is interwoven with the operating system and hardware drivers of this control unit, wherein this control unit is a specialized computer that is configured for driving or monitoring the field device , characterized in that • the execution environment is adapted to the hardware of a target control unit on which the control software is to run and is at the same time specific for the type of control unit for which the control software was written; • the virtual hardware of the execution environment is present as a device driver in a virtualized operating system of the execution environment and is insofar specific for the driven field device ; and • the brokering unit is adapted to the network connection of the control unit to the field device and is insofar specific for the combination of a concrete actuated field device and a communication standard used for the connection via the external interface , but is independent from the type of control unit for which the control software was written. • the execution environment is adapted to the hardware of a target control unit on which the control software is to run and is at the same time specific for the type of control unit for which the control software was written; • the virtual hardware of the execution environment is present as a device driver in a virtualized operating system of the execution environment and is insofar specific for the driven field device ; and • the brokering unit is adapted to the network connection of the control unit to the field device and is insofar specific for the combination of a concrete actuated field device and a communication standard used for the connection via the external interface , but is independent from the type of control unit for which the control software was written.
A capsule comprising a dry granule comprising temozolomide as an active ingredient and tartaric acid as a pH stabilizer.
Wall holder for an emergency ventilator arrangement where the wall holder comprises a basic structure mountable on a wall and is configured for detachable accommodation of the emergency ventilator arrangement , where the basic structure exhibits an accommodating side provided with accommodation means for detachable accommodation of the emergency ventilator arrangement and a mounting side opposite to the accommodating side facing towards the wall in an operational state mounted on the wall, where the mounting side defines a reference surface (BE) configured for abutting against the wall, where the accommodation means comprise: - A hanging structure which allows the hanging of a hanging counter-structure , and - A locking device which is arranged along the reference surface (BE) at a distance from the hanging structure , Where the locking device exhibits a locking structure which is accommodated displaceably at the basic structure between an engagement preparation position and an engagement position, where in the engagement position the locking structure is configured to fix a locking counter-structure of the emergency ventilator arrangement with positive fitting, wherein the engagement preparation position differs from the engagement position, wherein the locking device exhibits an actuation body which interacts with the locking structure , where the actuation body is moveable between an inactive position and an active position, where the active position is different from the inactive position, and where the actuation body allows, when it is in the active position, through actuation towards the inactive position, a displacement of the locking structure away from the engagement position towards the engagement preparation position, characterized in that the actuation body and the locking structure are pre-tensioned towards one another. - A hanging structure which allows the hanging of a hanging counter-structure , and - A locking device which is arranged along the reference surface (BE) at a distance from the hanging structure , Where the locking device exhibits a locking structure which is accommodated displaceably at the basic structure between an engagement preparation position and an engagement position, where in the engagement position the locking structure is configured to fix a locking counter-structure of the emergency ventilator arrangement with positive fitting, wherein the engagement preparation position differs from the engagement position, wherein the locking device exhibits an actuation body which interacts with the locking structure , where the actuation body is moveable between an inactive position and an active position, where the active position is different from the inactive position, and where the actuation body allows, when it is in the active position, through actuation towards the inactive position, a displacement of the locking structure away from the engagement position towards the engagement preparation position, characterized in that the actuation body and the locking structure are pre-tensioned towards one another.
A laminated glazing comprising two transparent substrates which are separated by a lamination interlayer, each substrate comprising two main faces, the first transparent substrate being coated on one of its main faces with a functional coating capable of acting on the solar radiation and/or infrared radiation, said coating comprising at least one metallic functional layer based on silver, each deposited between two dielectric coatings, at least one face of the second substrate comprises a low emissive coating, said low emissive coating comprising: - a first dielectric coating, - a low emissivity layer, chosen from transparent conductive oxides, - a second dielectric coating, wherein one of the two coatings comprises an absorbing layer having a thickness comprised between 2 and 100 nm, chosen from: - layers based on one or more metals and/or metalloids, - nitride layers of one or more metals and/or metalloids, - oxynitride layers of one or more metals and/or metalloids, elements chosen from among palladium, niobium, tungsten, iron particularly in the form of stainless steel, titanium, chromium, molybdenum, zirconium, nickel, tantalum, zinc, tin, silicon and hafnium, the laminated glaing has a light transmission of between 25 and 44%. at least one face of the second substrate comprises a low emissive coating, said low emissive coating comprising: - a first dielectric coating, - a low emissivity layer, chosen from transparent conductive oxides, - a second dielectric coating, - a first dielectric coating, - a low emissivity layer, chosen from transparent conductive oxides, - a second dielectric coating, wherein one of the two coatings comprises an absorbing layer having a thickness comprised between 2 and 100 nm, chosen from: - layers based on one or more metals and/or metalloids, - nitride layers of one or more metals and/or metalloids, - oxynitride layers of one or more metals and/or metalloids, - layers based on one or more metals and/or metalloids, - nitride layers of one or more metals and/or metalloids, - oxynitride layers of one or more metals and/or metalloids, elements chosen from among palladium, niobium, tungsten, iron particularly in the form of stainless steel, titanium, chromium, molybdenum, zirconium, nickel, tantalum, zinc, tin, silicon and hafnium, the laminated glaing has a light transmission of between 25 and 44%.
A battery cell comprising a semi-solid electrode, the semi-solid electrode comprising: 20% to 90% by volume of an active material; 0% to 25% by volume of a conductive material; 10% to 70% by volume of a liquid electrolyte, the liquid electrolyte including ethylene carbonate, dimethyl carbonate, diethyl carbonate, propylene carbonate, gamma butyrolactone or combinations thereof; and lithium in an amount sufficient to pre-lithiate the active material, wherein the lithium comprises at least one of lithium metal, a lithium-containing material and/or a lithium ion; and wherein the semi-solid electrode has a thickness of greater than 250 μm. 20% to 90% by volume of an active material; 0% to 25% by volume of a conductive material; 10% to 70% by volume of a liquid electrolyte, the liquid electrolyte including ethylene carbonate, dimethyl carbonate, diethyl carbonate, propylene carbonate, gamma butyrolactone or combinations thereof; and lithium in an amount sufficient to pre-lithiate the active material, wherein the lithium comprises at least one of lithium metal, a lithium-containing material and/or a lithium ion; and wherein the semi-solid electrode has a thickness of greater than 250 μm. lithium in an amount sufficient to pre-lithiate the active material, wherein the lithium comprises at least one of lithium metal, a lithium-containing material and/or a lithium ion; and wherein the semi-solid electrode has a thickness of greater than 250 μm.
A temperature sensor holder which is adapted to mount a temperature sensor , - wherein the temperature sensor is adapted to measure a temperature of a coil of a stator , in which a rotor is rotatably incorporated inside, the stator comprising a stator core , the coil wound around the stator core , and an insulator ensuring insulation between the stator core and the coil , - wherein the temperature sensor holder comprises a holder fixing portion for fixing the temperature sensor to the insulator ; - wherein a sensor holding portion is formed integrally with the holder fixing portion and adapted to hold the temperature sensor on a coil end portion of the coil from a direction of a rotation axis of the rotor, and - wherein in the sensor holding portion : - a storage groove adapted to store the temperature sensor is formed; and - at a groove bottom of the storage groove , a sensor pressing portion is formed which is adapted to press the temperature sensor to the coil end portion from the direction of the rotation axis of the rotor. - wherein the temperature sensor is adapted to measure a temperature of a coil of a stator , in which a rotor is rotatably incorporated inside, the stator comprising a stator core , the coil wound around the stator core , and an insulator ensuring insulation between the stator core and the coil , - wherein the temperature sensor holder comprises a holder fixing portion for fixing the temperature sensor to the insulator ; - wherein a sensor holding portion is formed integrally with the holder fixing portion and adapted to hold the temperature sensor on a coil end portion of the coil from a direction of a rotation axis of the rotor, and - wherein in the sensor holding portion : - a storage groove adapted to store the temperature sensor is formed; and - at a groove bottom of the storage groove , a sensor pressing portion is formed which is adapted to press the temperature sensor to the coil end portion from the direction of the rotation axis of the rotor. - a storage groove adapted to store the temperature sensor is formed; and - at a groove bottom of the storage groove , a sensor pressing portion is formed which is adapted to press the temperature sensor to the coil end portion from the direction of the rotation axis of the rotor.
A supply system for at least one orthopedic component which comprises at least one electronic and/or electrical device and is equipped with a supply connection and/or a radio device for receiving data and/or electrical energy, the supply system having a holder for the orthopedic component , which comprises a supply device , compatible with the supply connection and/or the radio device , for supplying the orthopedic component with data and/or energy, whereas the supply device and the supply connection are configured as contactless transmission devices for inductive or capacitive transmission or radio transmission, characterized in that the supply system is configured to carry out a mode switchover of the orthopedic component from an operating mode to a supply mode after the coupling of the orthopedic component to the supply device .
A rubber composition comprising: a rubber component containing 30% by mass or more of a natural rubber and/or a synthetic polyisoprene; and a total of less than 10 parts by mass of a linear polyol and a cyclic polyol per 100 parts by mass of the rubber component. a rubber component containing 30% by mass or more of a natural rubber and/or a synthetic polyisoprene; and a total of less than 10 parts by mass of a linear polyol and a cyclic polyol per 100 parts by mass of the rubber component.
A method for producing a solution of dispersed graphenes comprising: contacting graphite having a dimension in the a-b plane of 10 μm or less with an electronic liquid comprising a metal and a polar aprotic solvent; wherein the metal is selected from the group consisting of alkali metals and alkaline earth metals; wherein the polar aprotic solvent is selected from the group consisting of tetrahydrofuran, dimethyl sulfoxide, ethers such as dioxane, amides such as dimethylformamide and hexamethylphosphorotriamide, N-methyl pyrolidone, acetonitrile, CS 2 , and amine solvents such as ammonia and methylamine; wherein contacting the graphite with the electronic liquid produces a graphite intercalation compound and the method further comprises a step of contacting the graphite intercalation compound with a second polar aprotic solvent; wherein the second polar aprotic solvent is selected from the group consisting of tetrahydrofuran, ethers such as dioxane, CS 2 , and amine solvents such as ammonia and methylamine. contacting graphite having a dimension in the a-b plane of 10 μm or less with an electronic liquid comprising a metal and a polar aprotic solvent; wherein the metal is selected from the group consisting of alkali metals and alkaline earth metals; wherein the polar aprotic solvent is selected from the group consisting of tetrahydrofuran, dimethyl sulfoxide, ethers such as dioxane, amides such as dimethylformamide and hexamethylphosphorotriamide, N-methyl pyrolidone, acetonitrile, CS 2 , and amine solvents such as ammonia and methylamine; wherein contacting the graphite with the electronic liquid produces a graphite intercalation compound and the method further comprises a step of contacting the graphite intercalation compound with a second polar aprotic solvent; wherein the second polar aprotic solvent is selected from the group consisting of tetrahydrofuran, ethers such as dioxane, CS 2 , and amine solvents such as ammonia and methylamine.
A method for cache coherency in a reconfigurable cache architecture , comprising: receiving (S510) a memory access command, wherein the memory access command includes at least an address of a memory to access; determining (S520) at least one access parameter based on the memory access command, wherein the at least one access parameter includes at least one of: a process ID, a processing core ID, a thread ID, and a cache bit; computing a deterministic function over the at least one access parameter and the address to achieve cache coherency; and determining (S530) a target cache bin for serving the memory access command based in part on an outcome of computing the deterministic function; wherein the reconfigurable cache architecture is distributed over a plurality of separate physical cache nodes (225-1 - 225-n), coupled to the memory. receiving (S510) a memory access command, wherein the memory access command includes at least an address of a memory to access; determining (S520) at least one access parameter based on the memory access command, wherein the at least one access parameter includes at least one of: a process ID, a processing core ID, a thread ID, and a cache bit; computing a deterministic function over the at least one access parameter and the address to achieve cache coherency; and determining (S530) a target cache bin for serving the memory access command based in part on an outcome of computing the deterministic function; wherein the reconfigurable cache architecture is distributed over a plurality of separate physical cache nodes (225-1 - 225-n), coupled to the memory.
Composition comprising Acetyl Hexapeptide-8 and Pentapeptide-18 in combination with an Hippocastanum plant extract for use in the treatment of haemorrhoids.