mhurhangee/ep-ind-claims huggingface dataset:
A video encoding method for predicting pixel values of each target pixel in a target block under a plurality of different intra-prediction modes including a DC mode, directional modes and a planar mode, the method comprising computer executable steps executed by a processor of a video encoder to implement: calculating a first prediction value of each target pixel using linear interpolation between pixel values of respective horizontal boundary pixels, in the same horizontal position as the respective target pixels, on the upper outside of the target block, and a pixel value of the lowermost one of vertical boundary pixels neighboring the target block on the left outside of the target block when using the planar mode; calculating a second prediction value of each target pixel using linear interpolation between pixel values of the respective vertical boundary pixels, in the same vertical position as the respective target pixels, and a pixel value of the rightmost one of the horizontal boundary pixels neighboring the target block on the upper outside of the target block when using the planar mode; and averaging, for each target pixel, the first prediction value and the second prediction value to derive a prediction pixel value for that target pixel in a prediction block when using the planar mode. calculating a first prediction value of each target pixel using linear interpolation between pixel values of respective horizontal boundary pixels, in the same horizontal position as the respective target pixels, on the upper outside of the target block, and a pixel value of the lowermost one of vertical boundary pixels neighboring the target block on the left outside of the target block when using the planar mode; calculating a second prediction value of each target pixel using linear interpolation between pixel values of the respective vertical boundary pixels, in the same vertical position as the respective target pixels, and a pixel value of the rightmost one of the horizontal boundary pixels neighboring the target block on the upper outside of the target block when using the planar mode; and averaging, for each target pixel, the first prediction value and the second prediction value to derive a prediction pixel value for that target pixel in a prediction block when using the planar mode.
Process for producing a dispersion containing particles of slightly oxidized cellulose, which process comprises a) slightly oxidized non-nanoscale cellulose being introduced into an aqueous, preferably non-acidic, medium and b) being simultaneously or subsequently dispersed therein by input of energy, wherein the D50 value and the D90 value of the volume-average particle size is less than 300 nm, preferably less than 200 nm, more preferably less than 100 nm, determined by dynamic laser light scattering, and wherein the slightly oxidized cellulose used is obtained by periodate oxidation, phosphoric acid/sodium nitrite oxidation or TEMPO-catalysed sodium hypochlorite oxidation, wherein the slightly oxidized cellulose used has a carboxyl group or carbonyl group content of 200 to 1500 mmol/kg. a) slightly oxidized non-nanoscale cellulose being introduced into an aqueous, preferably non-acidic, medium and b) being simultaneously or subsequently dispersed therein by input of energy,
An adhesive article comprising a substrate comprising a surface, wherein the substrate surface comprises microprotrusions extending from the surface, wherein the average height of the microprotrusions is greater than about 10 microns and at least a portion of the surface, microprotrusions, or combinations thereof are coated with an adhesive glue, wherein the adhesive glue has a thickness of less than 75% of the average height of the microprotrusions and wherein the 90° pull off adhesive strength of the article is at least about 1.0 N/cm 2.
A hybrid computing device comprising: a first processor capable of operating in a first mode, the first mode consuming power at a level that is greater than a predetermined level; a second processor capable of operating in a second mode, the second mode consuming power at a level that is less than the predetermined level; a switch; a display device connected to one of the first processor and the second processor via the switch,; and an input for receiving a user command for performing a function, wherein when the switch is in a first state, the display device is connected to the first processor and displays a first user interface of an application program and when the switch is in a second state, the display device is connected to the second processor and displays a second user interface of the application program, and wherein a power characteristic of the function to be performed is compared to a power characteristic of the first processor and to a power characteristic of the second processor, and wherein the switch selects one of the states based on a matching of the power characteristic of the function with one of the power characteristics of either the first processor or the second processor, wherein a power characteristic indicates a maximum level of power that a corresponding processor may consume. a first processor capable of operating in a first mode, the first mode consuming power at a level that is greater than a predetermined level; a second processor capable of operating in a second mode, the second mode consuming power at a level that is less than the predetermined level; a switch; a display device connected to one of the first processor and the second processor via the switch,; and an input for receiving a user command for performing a function, wherein when the switch is in a first state, the display device is connected to the first processor and displays a first user interface of an application program and when the switch is in a second state, the display device is connected to the second processor and displays a second user interface of the application program, and wherein a power characteristic of the function to be performed is compared to a power characteristic of the first processor and to a power characteristic of the second processor, and wherein the switch selects one of the states based on a matching of the power characteristic of the function with one of the power characteristics of either the first processor or the second processor, wherein a power characteristic indicates a maximum level of power that a corresponding processor may consume.
A method for position synchronization of a drive network consisting of several individual drives, in particular of a drive network of a press, in which as a zero reference (P 0,xy) for the position for each individual drive a, in particular product-specific, individual reference position value is defined, and a function for recording of one or each respective reference values is stored, characterized in that in at least one control device of the drive network for at least one individual drive of the drive network, a function for shutting down and/or fast shutting down of the operation and/or the production with recording of one or each respective reference values at a standstill, and/or for recording of one or each respective values at a standstill will be stored, so that the position synchronous drive network is established even before its start.
A silicotitanate composition comprising a silicotitanate having a sitinakite structure and niobium, wherein the composition has at least two or more diffraction peaks at X-ray diffraction angles selected from the group consisting of 2θ = 8.8 ± 0.5°, 2θ = 10.0 ± 0.5°, and 2θ = 29.6 ± 0.5°, wherein the 2θ is a value of X-ray diffraction angle in a powder X-ray diffraction pattern measured using a general X-ray diffractometer and the measurement conditions are as follows: Radiation source: CuKα-ray (λ = 1.5405 Â) Measurement mode: step scan Scan condition: 0.04°/second Divergence slit: 1.00 deg. Scattering slit: 1.00 deg. Receiving slit: 0.30 mm Measurement time: 3.00 seconds Measurement range: 2θ = 5.0° to 60.0°, wherein the composition has at least X-ray diffraction angles 2θ and X-ray diffraction peak intensity ratios that are shown in Table 1 below: [Table 1] X-RAY DIFFRACTION ANGLE 2θ [°] XRD PEAK INTENSITY RATIO 8.8 ± 0.5 5 OR MORE AND 20 OR LESS 10.0 ± 0.5 5 OR MORE AND 20 OR LESS 11.3 ± 0.5 100 29.6 ± 0.5 5 OR MORE AND 40 OR LESS, wherein the X-ray diffraction peak intensity ratio in table 1 is a relative value of XRD peak height at each 2θ relative to an XRD peak height when the peak height at 2θ =11.3± 0.5 is taken as 100. wherein the composition has at least two or more diffraction peaks at X-ray diffraction angles selected from the group consisting of 2θ = 8.8 ± 0.5°, 2θ = 10.0 ± 0.5°, and 2θ = 29.6 ± 0.5°, wherein the 2θ is a value of X-ray diffraction angle in a powder X-ray diffraction pattern measured using a general X-ray diffractometer and the measurement conditions are as follows: Radiation source: CuKα-ray (λ = 1.5405 Â) Measurement mode: step scan Scan condition: 0.04°/second Divergence slit: 1.00 deg. Scattering slit: 1.00 deg. Receiving slit: 0.30 mm Measurement time: 3.00 seconds Measurement range: 2θ = 5.0° to 60.0°, wherein the composition has at least X-ray diffraction angles 2θ and X-ray diffraction peak intensity ratios that are shown in Table 1 below: [Table 1] X-RAY DIFFRACTION ANGLE 2θ [°] XRD PEAK INTENSITY RATIO 8.8 ± 0.5 5 OR MORE AND 20 OR LESS 10.0 ± 0.5 5 OR MORE AND 20 OR LESS 11.3 ± 0.5 100 29.6 ± 0.5 5 OR MORE AND 40 OR LESS, wherein the X-ray diffraction peak intensity ratio in table 1 is a relative value of XRD peak height at each 2θ relative to an XRD peak height when the peak height at 2θ =11.3± 0.5 is taken as 100. Radiation source: CuKα-ray (λ = 1.5405 Â) Measurement mode: step scan Scan condition: 0.04°/second Divergence slit: 1.00 deg. Scattering slit: 1.00 deg. Receiving slit: 0.30 mm Measurement time: 3.00 seconds Measurement range: 2θ = 5.0° to 60.0°, wherein the composition has at least X-ray diffraction angles 2θ and X-ray diffraction peak intensity ratios that are shown in Table 1 below: [Table 1] X-RAY DIFFRACTION ANGLE 2θ [°] XRD PEAK INTENSITY RATIO 8.8 ± 0.5 5 OR MORE AND 20 OR LESS 10.0 ± 0.5 5 OR MORE AND 20 OR LESS 11.3 ± 0.5 100 29.6 ± 0.5 5 OR MORE AND 40 OR LESS, wherein the X-ray diffraction peak intensity ratio in table 1 is a relative value of XRD peak height at each 2θ relative to an XRD peak height when the peak height at 2θ =11.3± 0.5 is taken as 100.
An injection device, comprising: a) a casing (3, 5, 6, 9) which accommodates or forms a reservoir for a liquid drug; b) a plunger rod which can move relative to the casing (3, 5, 6, 9) in an axially forward direction to deliver the drug; c) a dosing means which can move in the forward direction relative to the casing (3, 5, 6, 9) to prime the reservoir and which can rotate relative to the casing (3, 5, 6, 9) for selecting a dose to be injected, wherein rotation of the dosing means relative to the casing (3, 5, 6, 9) is prevented until a priming operation for priming the reservoir is completed; d) wherein the dosing means comprises a dosing control means (7b, 7d) which is configured to enable rotation of the dosing means at the end of the priming stroke for selecting the dose,wherein after setting a dose the dosing control means (7b, 7d) is configured to prevent a rotation of the dosing means back into the position which the dosing means had at the end of the priming stroke relative to the casing (3, 5, 6, 9), wherein the dosing control means (7b, 7d) is configured to engage a rotation prevention means disposed on the casing (3, 5, 6, 9) and to, after selecting the dose, abut a rotation limitation means disposed on the casing (3, 5, 6, 9); and wherein the dosing control means (7b, 7d) comprises an engagement means configured to engage the rotation prevention means and a deflecting means configured to deflect the elastic rotation limitation means in particular at the end of the priming stroke. a) a casing (3, 5, 6, 9) which accommodates or forms a reservoir for a liquid drug; b) a plunger rod which can move relative to the casing (3, 5, 6, 9) in an axially forward direction to deliver the drug; c) a dosing means which can move in the forward direction relative to the casing (3, 5, 6, 9) to prime the reservoir and which can rotate relative to the casing (3, 5, 6, 9) for selecting a dose to be injected, wherein rotation of the dosing means relative to the casing (3, 5, 6, 9) is prevented until a priming operation for priming the reservoir is completed; d) wherein the dosing means comprises a dosing control means (7b, 7d) which is configured to enable rotation of the dosing means at the end of the priming stroke for selecting the dose,wherein after setting a dose the dosing control means (7b, 7d) is configured to prevent a rotation of the dosing means back into the position which the dosing means had at the end of the priming stroke relative to the casing (3, 5, 6, 9), wherein the dosing control means (7b, 7d) is configured to engage a rotation prevention means disposed on the casing (3, 5, 6, 9) and to, after selecting the dose, abut a rotation limitation means disposed on the casing (3, 5, 6, 9); and wherein the dosing control means (7b, 7d) comprises an engagement means configured to engage the rotation prevention means and a deflecting means configured to deflect the elastic rotation limitation means in particular at the end of the priming stroke.
A process for the production of a dianhydrosugar from a sugar alcohol via the sugar alcohol anhydride intermediary, comprising the steps of: (a) combining a sugar alcohol with between 0.1% and 5% by weight of an acid catalyst to create a reaction mixture; (b) heating the reaction mixture under ambient pressure conditions to a temperature of between 130°C and 170°C without the use of a sparging gas; (c) holding the reaction mixture at a temperature of between 130°C and 170°C until less than a preselected amount of the sugar alcohol anhydride intermediary remains. (a) combining a sugar alcohol with between 0.1% and 5% by weight of an acid catalyst to create a reaction mixture; (b) heating the reaction mixture under ambient pressure conditions to a temperature of between 130°C and 170°C without the use of a sparging gas; (c) holding the reaction mixture at a temperature of between 130°C and 170°C until less than a preselected amount of the sugar alcohol anhydride intermediary remains.
A data transmission method, wherein the method comprises: receiving, by a first terminal, downlink control information from a first network device through an New Radio, NR, cellular link, the downlink control information is used to schedule an Long Term Evolution, LTE, sidelink, wherein the downlink control information indicates a processing delay parameter for sending or receiving data in third mode on the LTE sidelink; and sending or receiving, by the first terminal, the data on the LTE sidelink based on the downlink control information and a processing capability of the first terminal, wherein the processing capability comprises the processing delay parameter. receiving, by a first terminal, downlink control information from a first network device through an New Radio, NR, cellular link, the downlink control information is used to schedule an Long Term Evolution, LTE, sidelink, wherein the downlink control information indicates a processing delay parameter for sending or receiving data in third mode on the LTE sidelink; and sending or receiving, by the first terminal, the data on the LTE sidelink based on the downlink control information and a processing capability of the first terminal, wherein the processing capability comprises the processing delay parameter.
A lock, in particular a door lock, with a lock housing, in which locking mechanics are accommodated, and with a latch-bolt element which is displaceable by means of the locking mechanics between a position protruding from the lock housing and a position retracted into the lock housing, wherein the lock mechanics include at least one rotating element, which can be rotated by means of at least one actuating unit, such as a locking cylinder, a rotating knob, a step motor and/or the like, and wherein the lock mechanics include a slider element, which is in an operative connection with the rotating element in such a way that the slider element performs a back and forth movement when the rotating element is rotating in the same direction of rotation, wherein the operative connection between the rotating element and the slider element includes at least one driver cam provided at the rotating element, characterized in that - the slider element includes at least one reception area in the shape of a depression, into which the rotating element projects at least partially, and - the slider element includes a first driver shoulder such that the slider element by means of interaction with the driver cam can be moved into the first direction, and in that - the slider element includes a second driver shoulder opposite the first driver shoulder such that the slider element can be moved into a second direction opposite to the first direction by means of interaction with the driver cam. - the slider element includes at least one reception area in the shape of a depression, into which the rotating element projects at least partially, and - the slider element includes a first driver shoulder such that the slider element by means of interaction with the driver cam can be moved into the first direction, and in that - the slider element includes a second driver shoulder opposite the first driver shoulder such that the slider element can be moved into a second direction opposite to the first direction by means of interaction with the driver cam.
An air-breathing turbojet engine (101;301) for a hypersonic vehicle, comprising: a pump (201;401) for pumping a cryogenic fuel; an inlet (102;302) configured to compress inlet air by one or more shocks, thereby producing compressed inlet air; a cooler (103;303) configured to cool the compressed inlet air using the cryogenic fuel, thereby producing cooled air; a turbo-compressor (104;304) configured to receive cooled air from the cooler and to compress the air further, thereby producing compressed cooled air; a combustor (105;305) configured to receive compressed cooled air from the turbo-compressor and a first portion of the cryogenic fuel for combustion therein, thereby producing combustion products; a first turbine (106;306) configured to expand and be driven by combustion products from the combustor; a second turbine (107;307) configured to expand and be driven by a second portion of the cryogenic fuel, the first turbine and the second turbine being configured to drive the turbo-compressor via a shaft (108;308); an afterburner (109;309) configured to receive combustion products from the first turbine and the second portion of the cryogenic fuel from the second turbine for combustion therein; characterised in that the first portion of the cryogenic fuel is different from the second portion of the cryogenic fuel, and the cryogenic fuel is divided into the first portion and the second portion prior to the combustor and the second turbine whereby, of the first portion and the second portion, only the first portion is received by the combustor and only the second portion expands and drives the second turbine. a pump (201;401) for pumping a cryogenic fuel; an inlet (102;302) configured to compress inlet air by one or more shocks, thereby producing compressed inlet air; a cooler (103;303) configured to cool the compressed inlet air using the cryogenic fuel, thereby producing cooled air; a turbo-compressor (104;304) configured to receive cooled air from the cooler and to compress the air further, thereby producing compressed cooled air; a combustor (105;305) configured to receive compressed cooled air from the turbo-compressor and a first portion of the cryogenic fuel for combustion therein, thereby producing combustion products; a first turbine (106;306) configured to expand and be driven by combustion products from the combustor; a second turbine (107;307) configured to expand and be driven by a second portion of the cryogenic fuel, the first turbine and the second turbine being configured to drive the turbo-compressor via a shaft (108;308); an afterburner (109;309) configured to receive combustion products from the first turbine and the second portion of the cryogenic fuel from the second turbine for combustion therein; characterised in that the first portion of the cryogenic fuel is different from the second portion of the cryogenic fuel, and the cryogenic fuel is divided into the first portion and the second portion prior to the combustor and the second turbine whereby, of the first portion and the second portion, only the first portion is received by the combustor and only the second portion expands and drives the second turbine.
A heater installation for fuel of the type comprising individualized elements, the installation comprising: • a combustion hearth presenting an outlet orifice for the fuel delivered by a feed system, the outlet orifice leading to a fuel recovery grid beneath which there is arranged an enclosure for supplying a primary oxidizer for passing through the grid via primary passages, the recovery grid comprising a series of grid elements arranged in juxtaposed and endless manner, being driven to move so as to be capable of moving in translation in at least one substantially plane surface to which the fuel outlet orifice leads and in a direction entraining the fuel away from said outlet orifice, a secondary oxidizer being fed into the combustion hearth by a system for supplying a secondary oxidizer; • a device for igniting the fuel inside the combustion hearth; and • a recovery chamber for recovering the gas and smoke rising from the combustion hearth; the installation being characterized in that it includes a system for cleaning the grid by fingers penetrating in the primary passages presented by the grid. • a combustion hearth presenting an outlet orifice for the fuel delivered by a feed system, the outlet orifice leading to a fuel recovery grid beneath which there is arranged an enclosure for supplying a primary oxidizer for passing through the grid via primary passages, the recovery grid comprising a series of grid elements arranged in juxtaposed and endless manner, being driven to move so as to be capable of moving in translation in at least one substantially plane surface to which the fuel outlet orifice leads and in a direction entraining the fuel away from said outlet orifice, a secondary oxidizer being fed into the combustion hearth by a system for supplying a secondary oxidizer; • a device for igniting the fuel inside the combustion hearth; and • a recovery chamber for recovering the gas and smoke rising from the combustion hearth; the installation being characterized in that it includes a system for cleaning the grid by fingers penetrating in the primary passages presented by the grid.