mhurhangee/ep-ind-claims huggingface dataset:
A non-transitory computer-readable medium having stored thereon computer-executable instructions that, if executed by a computing device, cause the computing device to perform a method comprising: allocating a set of pixels of an image to a set of single-instruction multiple-data (SIMD) processors (102a, 102b); allocating a subset of pixels of the set of pixels to each thread executing on a processing lane of each of the set of SIMD processors; storing the subset of pixels in a general purpose register file associated with each processing lane; computing a per-thread private result based on the subset of pixels in a private space in the GPR file; accumulating the per-thread private result with additional per-thread private results computed by threads from a same lane to generate a per-lane local result stored in a global space in the GPR file; and writing the per-lane local result from the global space in the GPR file to a private area of a local data share, LDS, associated with the processing lane, the LDS associated only with a SIMD processor of the set of SIMD processors which contains the processing lane, each thread executing on any processing lane of the SIMD processor having read access to the private area of the LDS associated with the processing lane, wherein write access to the private area of the LDS is reserved for the threads executing on the processing lane of the SIMD processor associated with the private area of the LDS. allocating a set of pixels of an image to a set of single-instruction multiple-data (SIMD) processors (102a, 102b); allocating a subset of pixels of the set of pixels to each thread executing on a processing lane of each of the set of SIMD processors; storing the subset of pixels in a general purpose register file associated with each processing lane; computing a per-thread private result based on the subset of pixels in a private space in the GPR file; accumulating the per-thread private result with additional per-thread private results computed by threads from a same lane to generate a per-lane local result stored in a global space in the GPR file; and writing the per-lane local result from the global space in the GPR file to a private area of a local data share, LDS, associated with the processing lane, the LDS associated only with a SIMD processor of the set of SIMD processors which contains the processing lane, each thread executing on any processing lane of the SIMD processor having read access to the private area of the LDS associated with the processing lane, wherein write access to the private area of the LDS is reserved for the threads executing on the processing lane of the SIMD processor associated with the private area of the LDS.
A pigment, comprising: a pre-flake; and a coating of colored nanoparticles present on a surface of the pre-flake, wherein the colored nanoparticles are present in the coating in an amount greater than about 40% by volume, wherein the coating comprises multiple layers of nanoparticles. a pre-flake; and a coating of colored nanoparticles present on a surface of the pre-flake, wherein the colored nanoparticles are present in the coating in an amount greater than about 40% by volume, wherein the coating comprises multiple layers of nanoparticles.
A tracheostoma device for cooperation with a tracheostoma device holder superimposed of a tracheostoma of a person, wherein said tracheostoma device comprises: a tubular body at the proximal end of the tracheostoma device, said tubular body comprising at least one inlet upon exhalation through the tracheostoma device, and said tubular body being adapted for cooperation with the tracheostoma device holder; a container at the distal end of the tracheostoma device, said container comprising at least one outlet upon exhalation through the tracheostoma device, said container being adapted for housing a heat and moisture exchanging foam; wherein the tubular body and the container have a hardness of less than and including 100 Shore A; wherein the tubular body is monolithic with container; and wherein the container extends laterally beyond the tubular body. a tubular body at the proximal end of the tracheostoma device, said tubular body comprising at least one inlet upon exhalation through the tracheostoma device, and said tubular body being adapted for cooperation with the tracheostoma device holder; a container at the distal end of the tracheostoma device, said container comprising at least one outlet upon exhalation through the tracheostoma device, said container being adapted for housing a heat and moisture exchanging foam; wherein the tubular body and the container have a hardness of less than and including 100 Shore A; wherein the tubular body is monolithic with container; and wherein the container extends laterally beyond the tubular body.
A method for belt conditioning in a pastillation system, wherein a free-flowing product to be pastillated is deposited in the form of drops on a top surface of a cooling belt, wherein the pastilles resulting from solidification of the drops of product are removed from said cooling belt, and wherein a release agent is sprayed onto said cooling belt before the drops of product are deposited, characterized in that said free-flowing product is deposited, using a perforated outer shell, mounted above a cooling belt for rotation about a stationary internal body, on said cooling belt disposed below said outer shell, in that said release agent is sprayed onto the top surface of said cooling belt by means of at least one two-substance spray nozzle in the form of a very small release agent layer thickness, wherein the release agent is liquid and finely atomized by means of compressed air, wherein the release agent is an aqueous solution or emulsion or an anhydrous solution or emulsion of a surface-active agent, wherein by spraying the release agent onto said cooling belt a melt repellent surface is produced, and wherein a period of time between spraying the release agent on a certain area of said cooling belt and depositing the drops of product on said area is just sufficiently long for the sprayed drops of release agent to spread out to form a uniform layer, but sufficiently short to ensure that despite the very small layer thickness there is no total volatilization or evaporation of the release agent in said area.
A method for reducing static power dissipation "leakage power" by a processor core, comprising: measuring, during run time, a variation indicator indicating a leakage power of a processor core (210; 310, 312; 410, 412); determining, based on the variation indicator, a power control break-even time for the processor core (210; 310, 312; 410, 412); said break-even time representing the time duration, wherein the amount of power lost by the processor core (210; 310, 312; 410, 412) under a first power management mode is the same as the amount of power lost by the processor core (210; 310, 312; 410, 412) under a second power management mode, the second power management mode being different than the first power management mode, identifying an expected idle time of the processor core (210; 310, 312; 410, 412), applying said first power management mode to the processor core (210; 310, 312; 410, 412) when the expected idle time is greater than the current break-even time of the processor core (210; 310, 312; 410, 412); and applying said second power management mode to the processor core (210; 310, 312; 410, 412) when the expected idle time is less than the power control break-even time of the processor core (210; 310, 312; 410, 412), said first and second power management mode being both different from the normal execution mode of the processor core, and wherein said first and second power management modes are adapted to reduce static power dissipation of the processor. measuring, during run time, a variation indicator indicating a leakage power of a processor core (210; 310, 312; 410, 412); determining, based on the variation indicator, a power control break-even time for the processor core (210; 310, 312; 410, 412); said break-even time representing the time duration, wherein the amount of power lost by the processor core (210; 310, 312; 410, 412) under a first power management mode is the same as the amount of power lost by the processor core (210; 310, 312; 410, 412) under a second power management mode, the second power management mode being different than the first power management mode, identifying an expected idle time of the processor core (210; 310, 312; 410, 412), applying said first power management mode to the processor core (210; 310, 312; 410, 412) when the expected idle time is greater than the current break-even time of the processor core (210; 310, 312; 410, 412); and applying said second power management mode to the processor core (210; 310, 312; 410, 412) when the expected idle time is less than the power control break-even time of the processor core (210; 310, 312; 410, 412), said first and second power management mode being both different from the normal execution mode of the processor core, and wherein said first and second power management modes are adapted to reduce static power dissipation of the processor.
A neutron position detector, comprising: an enclosure used as a cathode, the enclosure being tubular; an anode located at an axial center inside the enclosure; and a gas sealed inside the enclosure, the gas including a 3 He gas and an additive gas, characterized in that the additive gas including nitrogen as a quenching gas, argon as a gas reducing a range of a reaction product of a neutron and the 3 He gas, and having a relationship of d × pN 2 > 0.03, where d is an inner diameter of the enclosure expressed in cm, and pN2 is a partial pressure of the nitrogen expressed in atm (1 atm = 101325 Pa). an enclosure used as a cathode, the enclosure being tubular; an anode located at an axial center inside the enclosure; and a gas sealed inside the enclosure, the gas including a 3 He gas and an additive gas, characterized in that the additive gas including nitrogen as a quenching gas, argon as a gas reducing a range of a reaction product of a neutron and the 3 He gas, and nitrogen as a quenching gas, argon as a gas reducing a range of a reaction product of a neutron and the 3 He gas, and having a relationship of d × pN 2 > 0.03, where d is an inner diameter of the enclosure expressed in cm, and pN2 is a partial pressure of the nitrogen expressed in atm (1 atm = 101325 Pa).
A method of supporting registration of a control module ( 101 / 104) with a vehicle to enable a remote computing system to wirelessly communicate instructions to the vehicle via the control module, the method comprising: positioning the control module within the vehicle, the control module having a unique identifier and configured to receive, through a wireless network, information configured to trigger the transmittal by the control module of a command over a controller area network bus within the vehicle, the unique identifier being associated in a remote computing system with an installer, the vehicle comprising at least one on-board diagnostic unit and a locking and unlocking device configured to be triggered by a lock command or an unlock command transmitted over the CAN bus; electronically connecting the control module to the OBD unit; electronically connecting the control module to the CAN bus; a mobile computing device receiving a first identifier via a wireless data capture technique distinct from cellular communication ( 502 / 507), the first identifier corresponding to the unique identifier of the control module; the mobile computing device receiving a second identifier via a wireless data capture technique distinct from cellular communication ( 503 / 508), the second identifier uniquely identifying the vehicle; the mobile computing device sending the first identifier and the second identifier to the remote computing system for association of the first identifier with the second identifier to register the control module with the vehicle within the remote computing system. positioning the control module within the vehicle, the control module having a unique identifier and configured to receive, through a wireless network, information configured to trigger the transmittal by the control module of a command over a controller area network bus within the vehicle, the unique identifier being associated in a remote computing system with an installer, the vehicle comprising at least one on-board diagnostic unit and a locking and unlocking device configured to be triggered by a lock command or an unlock command transmitted over the CAN bus; electronically connecting the control module to the OBD unit; electronically connecting the control module to the CAN bus; a mobile computing device receiving a first identifier via a wireless data capture technique distinct from cellular communication ( 502 / 507), the first identifier corresponding to the unique identifier of the control module; the mobile computing device receiving a second identifier via a wireless data capture technique distinct from cellular communication ( 503 / 508), the second identifier uniquely identifying the vehicle; the mobile computing device sending the first identifier and the second identifier to the remote computing system for association of the first identifier with the second identifier to register the control module with the vehicle within the remote computing system.
A game table comprising a tabletop and at least one stabilizer leg for stabilizing said tabletop, the table being characterized in that the leg comprises a body, a rod mounted to move in translation relative to the body between a retracted position and an extended position, and a shoe carried by a distal end of the rod, the shoe being provided with antirotation means for preventing the rod from rotating, the antirotation means comprising a male member and a female member acting together to guide the sliding of the rod in the body, the male member and the female member together forming an abutment defining the extended position of the rod and/or an abutment defining the retracted position of the rod, wherein the rod is arranged at least in part inside the body and the table includes a nut mounted to rotate relative to the body, the rod having a thread suitable for co-operating with tapping of said nut, such that turning the nut in one direction or the other causes the rod to move in translation between said two position, the rod could be remained in place in any of its intermediate positions between its two extreme positions, wherein the male member and the female member form a peg and slot arrangement, wherein the peg is associated with the body and the slot is associated with the rod, the peg being arranged inside the body so as to extend in an orthogonal direction to an axial direction of the body, and the peg extending right through the body and being fastened to said body at both of its ends. the shoe being provided with antirotation means for preventing the rod from rotating, the antirotation means comprising a male member and a female member acting together to guide the sliding of the rod in the body, the male member and the female member together forming an abutment defining the extended position of the rod and/or an abutment defining the retracted position of the rod, wherein the rod is arranged at least in part inside the body and the table includes a nut mounted to rotate relative to the body, the rod having a thread suitable for co-operating with tapping of said nut, such that turning the nut in one direction or the other causes the rod to move in translation between said two position, the rod could be remained in place in any of its intermediate positions between its two extreme positions, wherein the male member and the female member form a peg and slot arrangement, wherein the peg is associated with the body and the slot is associated with the rod, the peg being arranged inside the body so as to extend in an orthogonal direction to an axial direction of the body, and the peg extending right through the body and being fastened to said body at both of its ends.
A vascular graft composition comprising a substrate having at least one surface coated with an anti-thrombogenic coating comprising a first layer comprising a hydrogel and a second layer comprising an anti-coagulant, wherein the first layer contacts the luminal surface of the substrate and the first layer is coated by the second layer, wherein the hydrogel comprises hyaluronic acid, and wherein the hyaluronic acid is thiol-modified hyaluronic acid, and wherein the substrate is a decellularized tissue.
A nucleic acid construct comprising a transgene encoding MDR3 isoform A, said transgene is the sequence SEQ ID NO: 2 or a sequence having at least 90 % of identity with SEQ ID NO: 2.
A barrier device for inhibiting access of a crawling animal to an article (W, L), the device comprising a generally laminar substrate (1,S) having a barrier surface (4, HT) for impeding the motion of a crawling animal across the substrate (1,S), the substrate defining an aperture for accommodating at least a part of the article (W, L) in an operational configuration, and wherein the device has a locating surface on an opposed side of the substrate (1,S) from the barrier surface (4,HT), the locating surface comprising an adhesive, and the barrier surface (4, HT) comprises an adhesive surface for adhering to a crawling animal, thereby to impede its motion across the substrate (1,S), and characterised in that the substrate comprises a slit, perforation or line of weakness extending through the substrate (1,S) from the aperture to an edge region, for partly separating the substrate (1,S) into two portions so that the substrate is configurable in either an installation configuration or an operable configuration, wherein in the installation configuration a discontinuity is formed in the substrate (1,S) to permit engagement with the article (W,L), and in the operational configuration the barrier surface (4, HT) extends substantially continuously around an article (W,L) and the adhesive of the locating surface maintains the position of the device on a floor surface, wherein in the operational configuration the substrate has a flat and thin profile.
A cuboidal folding box having a front side and a back side, wherein the front side and the back side extend parallel to one another, having a circumferential side wall, which comprises a first side surface, a second side surface, a third side surface (5, 5') and a fourth side surface, having a suspension flap, which is hinged on the first side surface, and having an opening section, which is disposed in the front side or the back side, wherein the opening section is bounded by a first weakening line and a second weakening line, characterized in that the first weakening line and the second weakening line extend from a first edge of the front side or of the back side, in that the first edge is facing the first side surface, in that the opening section extends from the first edge, in that the opening section is pivotably connected to the suspension flap, in that the suspension flap has a first flap member and a second flap member, in that the first and the second flap member (11, 12) are bonded with one another and in that the suspension flap is connected to a surface (3, 2, 3b) of the box via a flap member (11, 12) along a weakening line (14, 23, 27) and is pivotably connected to the opening section by the other flap member (12, 11).
An aluminum chelate compound, characterized in comprising a β-ketoester represented by the following formula and a diketone represented by the following formula: wherein each of R 1 to R 3 represents a halogen atom or a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms, R 1 to R 3 being either identical to or different from one another; and R 8 represents a substituted or unsubstituted monovalent hydrocarbon group having 1 to 5 carbon atoms wherein each of R 9 and R 10 represents a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms, R 9 and R 10 being either identical to or different from each other; and R 4 represents a hydrogen atom or a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms, provided that an average molecular coordination number of said β-ketoester represented by the formula to aluminum is 0.5 to 2.5, an average molecular coordination number of said diketone represented by the formula to aluminum is 0.5 to 2.5, and an average molecular coordination number of a total of the formulae and is 3.0. wherein each of R 1 to R 3 represents a halogen atom or a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms, R 1 to R 3 being either identical to or different from one another; and R 8 represents a substituted or unsubstituted monovalent hydrocarbon group having 1 to 5 carbon atoms wherein each of R 9 and R 10 represents a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms, R 9 and R 10 being either identical to or different from each other; and R 4 represents a hydrogen atom or a substituted or unsubstituted monovalent hydrocarbon group having 1 to 12 carbon atoms, provided that an average molecular coordination number of said β-ketoester represented by the formula to aluminum is 0.5 to 2.5, an average molecular coordination number of said diketone represented by the formula to aluminum is 0.5 to 2.5, and an average molecular coordination number of a total of the formulae and is 3.0.
A method of controlling an elevator system, the method comprising using a computing system to: identify a passenger; collect one or more frustration indicators of the passenger during usage of the elevator system by the passenger; collect one or more frustration factors; correlate the one or more frustration factors to the one or more frustration indicators to generate one or more preferences for the passenger; generate a profile for the passenger in response to the correlating, the profile including the one or more preferences; and control operation of the elevator system in response to the one or more preferences to reduce frustration of the passenger during interaction with the elevator system (604, 606). identify a passenger; collect one or more frustration indicators of the passenger during usage of the elevator system by the passenger; collect one or more frustration factors; correlate the one or more frustration factors to the one or more frustration indicators to generate one or more preferences for the passenger; generate a profile for the passenger in response to the correlating, the profile including the one or more preferences; and control operation of the elevator system in response to the one or more preferences to reduce frustration of the passenger during interaction with the elevator system (604, 606).