mhurhangee/ep-ind-claims huggingface dataset:
An apparatus configured for graphics processing comprising: means for accessing, with a graphics processing unit GPU, a first memory unit according to one of an unsecure mode and a secure mode, wherein the means for accessing comprises: means for allowing the GPU to read data from only an unsecure portion of the first memory unit when the GPU is in the unsecure mode, and means for allowing the GPU to write data only to a secure portion of the first memory unit when the GPU is in the secure mode; characterized by: means for writing data to the secure portion of the first memory unit by utilizing a secure memory management unit, the secure memory management unit utilizing a secure page table containing address ranges for the secure portion of the first memory unit, and means for reading data from the unsecure portion of the first memory unit by utilizing an unsecure memory management unit, the unsecure memory management unit utilizing an unsecure page table containing address ranges for the unsecure portion of the first memory unit. means for accessing, with a graphics processing unit GPU, a first memory unit according to one of an unsecure mode and a secure mode, wherein the means for accessing comprises: means for allowing the GPU to read data from only an unsecure portion of the first memory unit when the GPU is in the unsecure mode, and means for allowing the GPU to read data from only an unsecure portion of the first memory unit when the GPU is in the unsecure mode, and means for allowing the GPU to write data only to a secure portion of the first memory unit when the GPU is in the secure mode; characterized by: means for writing data to the secure portion of the first memory unit by utilizing a secure memory management unit, the secure memory management unit utilizing a secure page table containing address ranges for the secure portion of the first memory unit, and means for reading data from the unsecure portion of the first memory unit by utilizing an unsecure memory management unit, the unsecure memory management unit utilizing an unsecure page table containing address ranges for the unsecure portion of the first memory unit. means for writing data to the secure portion of the first memory unit by utilizing a secure memory management unit, the secure memory management unit utilizing a secure page table containing address ranges for the secure portion of the first memory unit, and means for reading data from the unsecure portion of the first memory unit by utilizing an unsecure memory management unit, the unsecure memory management unit utilizing an unsecure page table containing address ranges for the unsecure portion of the first memory unit.
An air cleaner apparatus for a straddle-type vehicle, the air cleaner apparatus comprising: an air cleaner case for mounting to the straddle-type vehicle; a main filter element accommodated in the air cleaner case and dividing an interior of the air cleaner case into a first chamber and a second chamber; an intake passage for sucking air outside the air cleaner case into the first chamber; a discharge passage for discharging the air within the second chamber out of the air cleaner case; and a pre-filter element disposed in the first chamber and comprising a wet-type element, and wherein: the intake passage has an air outlet port for blowing off the air into the first chamber; and the pre-filter element is disposed spaced apart from the air outlet port so as to be positioned on an axis line of the air outlet port, wherein: the air cleaner case has an opposing wall facing the air outlet port and not allowing air to pass therethrough, characterized in that the pre-filter element is detachably mounted to the opposing wall. an air cleaner case for mounting to the straddle-type vehicle; a main filter element accommodated in the air cleaner case and dividing an interior of the air cleaner case into a first chamber and a second chamber; an intake passage for sucking air outside the air cleaner case into the first chamber; a discharge passage for discharging the air within the second chamber out of the air cleaner case; and a pre-filter element disposed in the first chamber and comprising a wet-type element, and wherein: the intake passage has an air outlet port for blowing off the air into the first chamber; and the pre-filter element is disposed spaced apart from the air outlet port so as to be positioned on an axis line of the air outlet port, the intake passage has an air outlet port for blowing off the air into the first chamber; and the pre-filter element is disposed spaced apart from the air outlet port so as to be positioned on an axis line of the air outlet port, wherein: the air cleaner case has an opposing wall facing the air outlet port and not allowing air to pass therethrough, characterized in that the pre-filter element is detachably mounted to the opposing wall. the air cleaner case has an opposing wall facing the air outlet port and not allowing air to pass therethrough, characterized in that the pre-filter element is detachably mounted to the opposing wall.
An energy store comprising a heat exchanger and disposed floating on a lower basin implemented as a lake and preferably able to be filled with water by means of a first infeed line, wherein water from the lower basin can be fed to a heat pump via a second infeed line and coolant permeating the heat exchanger can be fed to a heat pump separately via a third infeed line, so that energy can be removed from the water of the lower basin via the heat exchanger by freezing the water of the lower basin, or in the form of perceptible heat, and can be fed onward to a consumer for dissipating heat and/or for dissipating cold.
A method for producing an automotive glazing 1 comprising an optical sensor device characterized in that the method comprises the following steps: - provide at least one glass sheet (3, 4), - apply an enamel obscuration mask on at least one face of the at least one glass sheet ( 3, 4),to block a visual field from the outside of the automotive, the obscuration mask extending to an area wherein the at least one optical sensor device will be fixed, the obscuration mask comprising at least one opening (7, 7', 7") on the automotive interior side so as to be capable of acquiring the information through the opening (7, 7', 7") from the optical sensor device intended to be fixed on the at least one opening (7, 7', 7"), - dry or fire the enamel obscuration mask, - apply a washable cover layer which is a washable frit-free enamel or an ink or a suspension of mineral particles and resisting at a temperature of at least 620°C, on the surface of the at least one opening (7, 7', 7"), wherein the washable cover layer can be removed after a treatment of washing with water, - submit the glass sheet to a heat treatment at a temperature above 450°C, preferably above 650°C, preferably during a bending or a tempering process, - remove by washing the cover layer. - provide at least one glass sheet (3, 4), - apply an enamel obscuration mask on at least one face of the at least one glass sheet ( 3, 4),to block a visual field from the outside of the automotive, the obscuration mask extending to an area wherein the at least one optical sensor device will be fixed, the obscuration mask comprising at least one opening (7, 7', 7") on the automotive interior side so as to be capable of acquiring the information through the opening (7, 7', 7") from the optical sensor device intended to be fixed on the at least one opening (7, 7', 7"), - dry or fire the enamel obscuration mask, - apply a washable cover layer which is a washable frit-free enamel or an ink or a suspension of mineral particles and resisting at a temperature of at least 620°C, on the surface of the at least one opening (7, 7', 7"), wherein the washable cover layer can be removed after a treatment of washing with water, - submit the glass sheet to a heat treatment at a temperature above 450°C, preferably above 650°C, preferably during a bending or a tempering process, - remove by washing the cover layer.
A method for manufacturing a device that comprises an optics member comprising manufacturing irregularities resulting from a manufacturing step used during manufacture of said optics member, said manufacturing irregularities comprising a deviation of a characteristic magnitude of said optics member from a nominal value, said method comprising: manufacturing a spacer wafer to comprise a multitude of generally laterally extended regions; carrying out a correction step for at least partially compensating for the manufacturing irregularities of the optics member, said correction step comprising structuring the spacer wafer for at least partially compensating for said manufacturing irregularities such that a vertical extension of the spacer wafer in each of said regions is individually chosen for the respective region, characterized in that, the structuring of the spacer wafer includes decreasing said vertical extension in a plurality of said multitude of regions by removing material in a plurality of said multitude of regions, wherein said decreasing said vertical extension comprises carrying out a first processing step and carrying out subsequently to said first processing step a second processing step different from said first processing step, wherein said first processing step is carried out at a higher rate of removal of material from said plurality of said multitude of regions than said second processing step. manufacturing a spacer wafer to comprise a multitude of generally laterally extended regions; carrying out a correction step for at least partially compensating for the manufacturing irregularities of the optics member, said correction step comprising structuring the spacer wafer for at least partially compensating for said manufacturing irregularities such that a vertical extension of the spacer wafer in each of said regions is individually chosen for the respective region, characterized in that, the structuring of the spacer wafer includes decreasing said vertical extension in a plurality of said multitude of regions by removing material in a plurality of said multitude of regions, wherein said decreasing said vertical extension comprises carrying out a first processing step and carrying out subsequently to said first processing step a second processing step different from said first processing step, structuring the spacer wafer for at least partially compensating for said manufacturing irregularities such that a vertical extension of the spacer wafer in each of said regions is individually chosen for the respective region, characterized in that, the structuring of the spacer wafer includes decreasing said vertical extension in a plurality of said multitude of regions by removing material in a plurality of said multitude of regions, wherein said decreasing said vertical extension comprises carrying out a first processing step and carrying out subsequently to said first processing step a second processing step different from said first processing step,
A Kraft paper having a grammage of 65-85 g/m 2 according to ISO 536, wherein the Bendtsen roughness of at least one side of the paper is below 300 ml/min according to ISO 8791-2 and the geometric bending resistance of the paper according to ISO 2493-1 divided by the thickness of the paper according to ISO 534 is at least 0.65 mN/μm, preferably at least 0.72 mN/μm, such as at least 0.78 mN/μm, wherein the geometric bending resistance is measured using a bending angle of 15° and a test span length of 10 mm.
Airbag housing of a motor vehicle, in particular knee airbag housing, having a support for the airbag housing, wherein the support for the airbag housing has a support strut which is connected to the airbag housing, characterized in that the support for the airbag housing has at least one elastic element by means of which the support strut can be mounted on a carrying frame (5, 6, 7) of the motor vehicle wherein the support strut is configured as a profiled tube, it being possible for the elastic element to be arranged between the profiled tube and the carrying frame (5, 6, 7) in such a way that the profiled tube (5, 6, 7) is mounted in the carrying frame in a floating manner.
An injection device for injecting multiple settable doses of a liquid drug via an attachable injection needle comprising; An outer housing, A syringe body which holds; i) a cartridge for the liquid drug, ii) a dose setting mechanism for setting the size of the dose to be injected, iii) a dose injection mechanism for ejecting the set dose, and iv) a needle interface to which the injection needle is attachable, a needle shield telescopically and repeatable movable relatively to the housing between a first position and a second position; - the first position being a position in which the attached injection needle is axially covered by the needle shield, and - the second position being a position in which at least a part of the attached injection needle extends beyond the needle shield ready to perform an injection, and wherein the syringe body is telescopically and repeatable movable in relation to the housing between a retracted position and an extended position; - the retracted position being a position in which the needle interface is covered by the needle shield and - the extended position being a position in which the needle interface protrude beyond the needle shield thereby enabling a user to attach the injection needle to the needle interface, and the needle shield is urged toward the first position and the syringe body is urged towards the retracted position by one single tension spring encompassed between the needle shield and the syringe body. i) a cartridge for the liquid drug, ii) a dose setting mechanism for setting the size of the dose to be injected, iii) a dose injection mechanism for ejecting the set dose, and iv) a needle interface to which the injection needle is attachable, - the first position being a position in which the attached injection needle is axially covered by the needle shield, and - the second position being a position in which at least a part of the attached injection needle extends beyond the needle shield ready to perform an injection, and - the retracted position being a position in which the needle interface is covered by the needle shield and - the extended position being a position in which the needle interface protrude beyond the needle shield thereby enabling a user to attach the injection needle to the needle interface, and
A composition consisting of: a refrigerant component consisting essentially of from 4 to 16 weight percent of HFO-1234yf, from 34 to 38 weight percent of HFC-32, and from 48 to 60 weight percent of trans-HFO-1234ze; and optionally a non-refrigerant component. a refrigerant component consisting essentially of from 4 to 16 weight percent of HFO-1234yf, from 34 to 38 weight percent of HFC-32, and from 48 to 60 weight percent of trans-HFO-1234ze; and optionally a non-refrigerant component.
A method of encoding pixels in a picture of a video sequence comprising multiple pictures, said method comprises: identifying a pixel to be processed in said picture for which a small change or variation in a linear representation of said pixel color, which is a representation in a linear color space, results in a comparatively large change or variation in a non-linear representation of said pixel color, which is a representation in a non-linear color space, but the change or variation in the linear representation of said pixel color does not negatively affect visual quality, by identifying said pixel for which: a variation in the linear representation of a color of said pixel that is smaller than a first threshold value results in a variation in the non-linear representation of said color that is larger than a second threshold value; and said variation in said linear representation of said color results in a variation in a luminance and chrominance based representation of said color, which is a representation in a perceptual color space, that is smaller than a third threshold value; and processing said identified pixel by modifying a value of at least one color component of said pixel to reduce variability; converting said linear representation of said color into the non-linear representation of said color of said pixel; and encoding said non-linear representation of said color. identifying a pixel to be processed in said picture for which a small change or variation in a linear representation of said pixel color, which is a representation in a linear color space, results in a comparatively large change or variation in a non-linear representation of said pixel color, which is a representation in a non-linear color space, but the change or variation in the linear representation of said pixel color does not negatively affect visual quality, by identifying said pixel for which: a variation in the linear representation of a color of said pixel that is smaller than a first threshold value results in a variation in the non-linear representation of said color that is larger than a second threshold value; and said variation in said linear representation of said color results in a variation in a luminance and chrominance based representation of said color, which is a representation in a perceptual color space, that is smaller than a third threshold value; and a variation in the linear representation of a color of said pixel that is smaller than a first threshold value results in a variation in the non-linear representation of said color that is larger than a second threshold value; and said variation in said linear representation of said color results in a variation in a luminance and chrominance based representation of said color, which is a representation in a perceptual color space, that is smaller than a third threshold value; and processing said identified pixel by modifying a value of at least one color component of said pixel to reduce variability; converting said linear representation of said color into the non-linear representation of said color of said pixel; and encoding said non-linear representation of said color.
An electronic device comprising: a housing having a first vertical outer wall with a first vent and a second vertical outer wall with a second vent; a circuit board having a first heat source element and a second heat source element; a contoured heatsink (10;10a) in thermal engagement with the first heat source element, wherein the contoured heatsink (10;10a) overlies at least one-third of the circuit board and extends along the first vertical side wall; a second heatsink (58;10b) contacting the second heat source element, wherein the second heatsink (58;10b) is located in only one half of the electronic device and is aligned with the second vent; wherein the second heat source element is below the circuit board and the circuit board has heat passage via holes therethrough over the second heat source element, whereby heat generated by the second heat source element transfers to the second heatsink (58;10b) through the heat passage via holes. a housing having a first vertical outer wall with a first vent and a second vertical outer wall with a second vent; a circuit board having a first heat source element and a second heat source element; a contoured heatsink (10;10a) in thermal engagement with the first heat source element, wherein the contoured heatsink (10;10a) overlies at least one-third of the circuit board and extends along the first vertical side wall; a second heatsink (58;10b) contacting the second heat source element, wherein the second heatsink (58;10b) is located in only one half of the electronic device and is aligned with the second vent; wherein the second heat source element is below the circuit board and the circuit board has heat passage via holes
A method for controlling a valve, the method comprising: providing, by one or more processors, a first cutoff threshold and a second cutoff threshold; monitoring, by one or more processors, a servo set-point; initiating, by one or more processors, a first cutoff procedure in response to the servo set-point crossing the first cutoff threshold, wherein initiating the first cutoff procedure includes overdriving a servo by ramping the servo set-point from the first cutoff threshold to beyond a calibrated set-point range, and wherein ramping the servo set-point includes one of: an exponentially decaying signal, a monotonically decreasing signal, or a monotonically increasing signal; and initiating, by one or more processors, a second cutoff procedure in response to the servo set-point crossing the second cutoff threshold, wherein initiating a second cutoff procedure includes utilizing open loop control to fully saturate a I/P drive signal. monitoring, by one or more processors, a servo set-point; initiating, by one or more processors, a first cutoff procedure in response to the servo set-point crossing the first cutoff threshold, wherein initiating the first cutoff procedure includes overdriving a servo by ramping the servo set-point from the first cutoff threshold to beyond a calibrated set-point range, and wherein ramping the servo set-point includes one of: an exponentially decaying signal, a monotonically decreasing signal, or a monotonically increasing signal; and initiating, by one or more processors, a second cutoff procedure in response to the servo set-point crossing the second cutoff threshold, wherein initiating a second cutoff procedure includes utilizing open loop control to fully saturate a I/P drive signal.
An adapter (10; 40; 50; 60; 70; 100; 107; 108) for a medical device catheter, said adapter (10; 40; 50; 60; 70; 100; 107; 108) comprising: a proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114) configured to be inserted in and interface with an inner lumen of a medical device catheter; a distal portion (20; 41; 51; 61; 71; 170; 171; 172; 173; 174) configured to be arranged outside the inner lumen of the medical device catheter and expand or modify the configuration or use of the medical device catheter; and an attachment mechanism comprising a coil (12; 130) arranged at the proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114), characterised in that, a surface of the coil (12; 130) is configured to directly engage with a surface of the inner lumen of the medical device catheter and secure the adapter to the medical device catheter. a proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114) configured to be inserted in and interface with an inner lumen of a medical device catheter; a distal portion (20; 41; 51; 61; 71; 170; 171; 172; 173; 174) configured to be arranged outside the inner lumen of the medical device catheter and expand or modify the configuration or use of the medical device catheter; and an attachment mechanism comprising a coil (12; 130) arranged at the proximal portion (30; 42; 52; 62; 72; 110; 111; 112; 113; 114), characterised in that, a surface of the coil (12; 130) is configured to directly engage with a surface of the inner lumen of the medical device catheter and secure the adapter to the medical device catheter.