mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding video data, the method comprising: receiving a first block of the video data; receiving information to determine a quantization parameter for the first block; in response to determining that the first block is coded using a color-space transform mode for residual data of the first block, modifying the quantization parameter for the first block; performing a dequantization process for the first block based on the modified quantization parameter for the first block; receiving a second block of the video data, wherein the second block follows the first block; receiving for the second block, a difference value indicating a difference between a quantization parameter for the second block and the unmodified quantization parameter for the first block; determining the quantization parameter for the second block based on the received difference value and the unmodified quantization parameter for the first block; in response to determining that the color-space transform mode is enabled for the second block of video data, modifying the determined quantization parameter for the second block, and decoding the second block based on the determined quantization parameter for the second block, wherein decoding the second block based on the determined quantization parameter for the second block comprises: performing a dequantization process for the second block based on the modified quantization parameter for the second block. receiving a first block of the video data; receiving information to determine a quantization parameter for the first block; in response to determining that the first block is coded using a color-space transform mode for residual data of the first block, modifying the quantization parameter for the first block; performing a dequantization process for the first block based on the modified quantization parameter for the first block; receiving a second block of the video data, wherein the second block follows the first block; receiving for the second block, a difference value indicating a difference between a quantization parameter for the second block and the unmodified quantization parameter for the first block; determining the quantization parameter for the second block based on the received difference value and the unmodified quantization parameter for the first block; in response to determining that the color-space transform mode is enabled for the second block of video data, modifying the determined quantization parameter for the second block, and decoding the second block based on the determined quantization parameter for the second block, wherein decoding the second block based on the determined quantization parameter for the second block comprises: performing a dequantization process for the second block based on the modified quantization parameter for the second block.
A method for reducing power consumption in a primary unit comprising a primary coil, said primary unit capable of transferring wireless power by electromagnetic induction to a secondary device comprising a secondary coil, said secondary device separable from said primary unit, said method comprising the step of: detecting presence of an object within proximity of said primary unit; characterized in said method further comprising the steps of: sending a pulse of wireless power to said object in response to detecting presence of said object within proximity of said primary unit; determining whether a valid secondary device is present in proximity to said primary unit in response to sending said pulse of wireless power to said object; in response to a determination that a valid secondary device is not present, restricting power supplied to said primary unit; and in response to determining that a valid secondary device is present, determining whether said valid secondary device desires power, and in response to a determination that no present valid secondary devices desire power, restricting power supplied to said primary unit, wherein said valid secondary device is said secondary device comprising said secondary coil, and wherein said pulse of wireless power is sufficient to enable communication from the secondary device, and wherein the level of power required to enable said communication by said secondary device is less than the power required to transfer full power to the device. detecting presence of an object within proximity of said primary unit; characterized in said method further comprising the steps of: sending a pulse of wireless power to said object in response to detecting presence of said object within proximity of said primary unit; determining whether a valid secondary device is present in proximity to said primary unit in response to sending said pulse of wireless power to said object; in response to a determination that a valid secondary device is not present, restricting power supplied to said primary unit; and in response to determining that a valid secondary device is present, determining whether said valid secondary device desires power, and in response to a determination that no present valid secondary devices desire power, restricting power supplied to said primary unit, wherein said valid secondary device is said secondary device comprising said secondary coil, and wherein said pulse of wireless power is sufficient to enable communication from the secondary device, and wherein the level of power required to enable said communication by said secondary device is less than the power required to transfer full power to the device. wherein said valid secondary device is said secondary device comprising said secondary coil, and wherein said pulse of wireless power is sufficient to enable communication from the secondary device, and wherein the level of power required to enable said communication by said secondary device is less than the power required to transfer full power to the device.
Heat exchanger for a refrigerant fluid loop, the heat exchanger comprising at least one inlet configured to allow a refrigerant fluid to enter in the heat exchanger and at least one outlet configured to allow the refrigerant fluid to exit the heat exchanger, the heat exchanger comprising at least one block in which a filter is arranged, this filter being adapted to filter the refrigerant fluid, characterized in that the block is arranged downstream the outlet, and in that said block comprises at least one fixation means (205, 215, 224, 225, 230) which holds the filter in a determined position, wherein at least one path is arranged in the block, the filter being accommodated in said at least one path and wherein the fixation means (205, 215, 224, 225, 230) comprises at least one deformable ring interposed between the filter and a wall defining the path of the block, wherein the fixation means (205, 215, 224, 225, 230) comprises at least one pressing means which is arranged between the wall defining the path of the block and an external face of the filter, the pressing means applying pressure on this external face of the filter, in the direction of the deformable ring, wherein the pressing means is formed by at least one elastic arm which emerges from the wall defining the path of the block, at least one free end of this elastic arm applying pressure against the external face of the filter.
A metal member comprising: a base material composed of one of copper and a copper alloy; a white metal layer provided on the base material at a part or an entirety thereof; wherein oil is provided on the white metal layer; characterized in that an oil film is provided on the white metal layer, the white metal layer having a thickness of 0.01 μm to 0.80 μm, a surface of the white metal layer having an arithmetic mean roughness of 0.6 μm to 1.2 μm, the oil film having an electric double-layer capacitance of 1.5 μF/cm 2 to 7.0 μF/cm 2. a base material composed of one of copper and a copper alloy; a white metal layer provided on the base material at a part or an entirety thereof; wherein oil is provided on the white metal layer; characterized in that an oil film is provided on the white metal layer, the white metal layer having a thickness of 0.01 μm to 0.80 μm, a surface of the white metal layer having an arithmetic mean roughness of 0.6 μm to 1.2 μm, the oil film having an electric double-layer capacitance of 1.5 μF/cm 2 to 7.0 μF/cm 2.
A method for selecting a target-binding protein with favorable biophysical properties comprising (i) screening a library of protein variants against a target protein using mRNA display to select a first population of target-binding protein variants consisting of at most 10 3 target-binding protein variants from a library comprising at least 10 12 protein variants, comprising conducting a number of rounds of selection sufficient to obtain the at most 10 3 target-binding protein variants; (ii) determining whether 10% of the at most 10 3 target-binding protein variants have favorable biophysical properties, and wherein the favorable biophysical properties are one or more of solubility, thermostability, high expression, low levels of aggregation, proper folding and binding specificity; and (iii) if 10% of the at most 10 3 target-binding protein variants do not have favorable biophysical properties, then using yeast surface display for selecting a population of at most 10 2 target-binding protein variants from the at most 10 3 target-binding protein variants obtained during the selection in step (i). (i) screening a library of protein variants against a target protein using mRNA display to select a first population of target-binding protein variants consisting of at most 10 3 target-binding protein variants from a library comprising at least 10 12 protein variants, comprising conducting a number of rounds of selection sufficient to obtain the at most 10 3 target-binding protein variants; (ii) determining whether 10% of the at most 10 3 target-binding protein variants have favorable biophysical properties, and wherein the favorable biophysical properties are one or more of solubility, thermostability, high expression, low levels of aggregation, proper folding and binding specificity; and (iii) if 10% of the at most 10 3 target-binding protein variants do not have favorable biophysical properties, then using yeast surface display for selecting a population of at most 10 2 target-binding protein variants from the at most 10 3 target-binding protein variants obtained during the selection in step (i).
A method to generate a partial display update in a windowing system having a plurality of display layers, comprising: identifying an output region associated with a top-most display layer, the output region having an associated output size and location; identifying a buffer having a size and location corresponding to the output size and location; identifying the top-most display layer as a current display layer; determining if a filter is associated with the current display layer and, if there is, determining an input region for the filter, said input region having an associated size and location; setting the display layer immediately lower than the current display layer to the current display layer; repeating the act of determining for each relevant display layer in the windowing system; establishing an output buffer having a size and location to accommodate the size and location of the buffer; and compositing that portion of each display layer that overlaps the output buffer's location into the established output buffer, characterized in that the determining step further comprises, if there is a filter associated with the current display layer, adjusting the buffer size and location to correspond to the union of the input region's size and location and the buffer's size and location. identifying an output region associated with a top-most display layer, the output region having an associated output size and location; identifying a buffer having a size and location corresponding to the output size and location; identifying the top-most display layer as a current display layer; determining if a filter is associated with the current display layer and, if there is, determining an input region for the filter, said input region having an associated size and location; setting the display layer immediately lower than the current display layer to the current display layer; repeating the act of determining for each relevant display layer in the windowing system; establishing an output buffer having a size and location to accommodate the size and location of the buffer; and compositing that portion of each display layer that overlaps the output buffer's location into the established output buffer, characterized in that the determining step further comprises, if there is a filter associated with the current display layer, adjusting the buffer size and location to correspond to the union of the input region's size and location and the buffer's size and location.
An antifouling coating system comprising: (a) a base coating composition comprising a base coating material and a first adhesion promoter comprising an epoxy modified adhesion promoter; and (b) an antifouling coating composition comprising (i) a silane of the formula: (R 1 O) a (R 1) (3-a) Si-R 2 -(Si(R 1) 2 O) p -Si(R 1) 2 -R 2 -O-(CH 2 -CHR 1 -O) q -R 1 where a is independently 1-3; R 1 is independently chosen from a H or a C 1 - C 10 alkyl radical; R 2 is independently chosen from a C 2 -C 10 alkylene; p is 1-100; q is 1-50; (ii) a functionalized polymer of the formula: R 8 (3-d) R 7 d Si-O-(SiR 7 LO) e -(SiR 7 2 O) f -SiR 7 d R 8 (3-d) wherein L is -(SiR 7 2 O) f -SiR 7 d R 8 (3-d); R 7 is independently chosen from a C1 to C10 alkyl, or a substituted or un-substituted phenyl group; R 8 is independently chosen from an alkoxy, an acetoxy, or a ketoxime radical; d is independently 0-2; e is 1-10,000; and f is 10-100,000; (iii) a second adhesion promoter; (iv) optionally an inorganic filler; and (v) optionally a silane cross linker, and optionally a condensation catalyst. (a) a base coating composition comprising a base coating material and a first adhesion promoter comprising an epoxy modified adhesion promoter; and (b) an antifouling coating composition comprising (i) a silane of the formula: (R 1 O) a (R 1) (3-a) Si-R 2 -(Si(R 1) 2 O) p -Si(R 1) 2 -R 2 -O-(CH 2 -CHR 1 -O) q -R 1 where a is independently 1-3; R 1 is independently chosen from a H or a C 1 - C 10 alkyl radical; R 2 is independently chosen from a C 2 -C 10 alkylene; p is 1-100; q is 1-50; (ii) a functionalized polymer of the formula: R 8 (3-d) R 7 d Si-O-(SiR 7 LO) e -(SiR 7 2 O) f -SiR 7 d R 8 (3-d) wherein L is -(SiR 7 2 O) f -SiR 7 d R 8 (3-d); R 7 is independently chosen from a C1 to C10 alkyl, or a substituted or un-substituted phenyl group; R 8 is independently chosen from an alkoxy, an acetoxy, or a ketoxime radical; d is independently 0-2; e is 1-10,000; and f is 10-100,000; (iii) a second adhesion promoter; (iv) optionally an inorganic filler; and (v) optionally a silane cross linker, and optionally a condensation catalyst. (i) a silane of the formula: (R 1 O) a (R 1) (3-a) Si-R 2 -(Si(R 1) 2 O) p -Si(R 1) 2 -R 2 -O-(CH 2 -CHR 1 -O) q -R 1 where a is independently 1-3; R 1 is independently chosen from a H or a C 1 - C 10 alkyl radical; R 2 is independently chosen from a C 2 -C 10 alkylene; p is 1-100; q is 1-50; (ii) a functionalized polymer of the formula: R 8 (3-d) R 7 d Si-O-(SiR 7 LO) e -(SiR 7 2 O) f -SiR 7 d R 8 (3-d) wherein L is -(SiR 7 2 O) f -SiR 7 d R 8 (3-d); R 7 is independently chosen from a C1 to C10 alkyl, or a substituted or un-substituted phenyl group; R 8 is independently chosen from an alkoxy, an acetoxy, or a ketoxime radical; d is independently 0-2; e is 1-10,000; and f is 10-100,000; (iii) a second adhesion promoter; (iv) optionally an inorganic filler; and (v) optionally a silane cross linker, and optionally a condensation catalyst.
A method for depositing the same, accurately determined amount of a particular substance at two or more target locations on an object using an ink-jet dispensing unit having a jet and an actuator which controls the release of drops from the jet, the unit being capable of releasing a plurality of drops at a selected location on an object in response to each of a plurality of trigger events, the trigger events being separated by a time interval, in which the method comprises: positioning an object in proximity to the jet of the ink-jet dispensing unit such that relative movement between the object and the jet is achievable, characterized in that the method further comprises: collecting a first predetermined number of drops of a particular substance from the jet in a receptacle such that the unit is operating in a plateau region in which the drop mass within a sequence of drops is stable, and determining the average drop mass, calculating how many drops are required to achieve a desired drop mass at each of the locations on the object, collecting a second predetermined number of drops of the particular substance from the jet in a receptacle, until the unit is operating in the plateau region, the second predetermined number being less than the first predetermined number, and depositing a number of drops required to achieve the desired drop mass at each of the locations on the object while ensuring that the time needed to move between target locations is less than or equal to the time interval between two trigger events. positioning an object in proximity to the jet of the ink-jet dispensing unit such that relative movement between the object and the jet is achievable, characterized in that the method further comprises: collecting a first predetermined number of drops of a particular substance from the jet in a receptacle such that the unit is operating in a plateau region in which the drop mass within a sequence of drops is stable, and determining the average drop mass, calculating how many drops are required to achieve a desired drop mass at each of the locations on the object, collecting a second predetermined number of drops of the particular substance from the jet in a receptacle, until the unit is operating in the plateau region, the second predetermined number being less than the first predetermined number, and depositing a number of drops required to achieve the desired drop mass at each of the locations on the object while ensuring that the time needed to move between target locations is less than or equal to the time interval between two trigger events.
A secure computation system comprising: a secure computation apparatus P 0; a secure computation apparatus P 1; and a secure computation apparatus P 2, wherein i∈{0, 1, 2} holds; P+ is P (i+1)mod3; P- is P (i-1)mod3; a and b are arbitrary values; a 0, a 1, and a 2 are subshares satisfying a = a 0 +a 1 +a 2; and b 0, b 1, and b 2 are subshares satisfying b = b 0 +b 1 +b 2, a storage (111-P i) of a secure computation apparatus Pi and a storage (111-P +) of a secure computation apparatus P+ have stored therein subshares a + ∈{a 0, a 1, a 2} and b + ∈{b 0, b 1, b 2}, the storage (111-P i) of the secure computation apparatus Pi and a storage (111-P -) of a secure computation apparatus P - have stored therein subshares a - ∈A - and b - ∈B -, where A - is a complement of a + in {a 0, a 1, a 2} and B - is a complement of b + in {b 0, b 1, b 2}, a sharing unit (114-P i) of the secure computation apparatus Pi and a sharing unit (114-P +) of the secure computation apparatus P+ share an arbitrary value r+, the sharing unit (114-P i) of the secure computation apparatus Pi and a sharing unit (114-P -) of the secure computation apparatus P - share an arbitrary value r -, an arithmetic unit (112-P i) of the secure computation apparatus Pi calculates c+ = (a + +a -)(b + +b -)-a - b - +r + -r -, and an output unit (115-P i) of the secure computation apparatus Pi outputs c+ to the secure computation apparatus P+, and c+ is input to an input unit (115-P +) of the secure computation apparatus P+. a secure computation apparatus P 0; a secure computation apparatus P 1; and a secure computation apparatus P 2, wherein i∈{0, 1, 2} holds; P+ is P (i+1)mod3; P- is P (i-1)mod3; a and b are arbitrary values; a 0, a 1, and a 2 are subshares satisfying a = a 0 +a 1 +a 2; and b 0, b 1, and b 2 are subshares satisfying b = b 0 +b 1 +b 2, a storage (111-P i) of a secure computation apparatus Pi and a storage (111-P +) of a secure computation apparatus P+ have stored therein subshares a + ∈{a 0, a 1, a 2} and b + ∈{b 0, b 1, b 2}, the storage (111-P i) of the secure computation apparatus Pi and a storage (111-P -) of a secure computation apparatus P - have stored therein subshares a - ∈A - and b - ∈B -, where A - is a complement of a + in {a 0, a 1, a 2} and B - is a complement of b + in {b 0, b 1, b 2}, a sharing unit (114-P i) of the secure computation apparatus Pi and a sharing unit (114-P +) of the secure computation apparatus P+ share an arbitrary value r+, the sharing unit (114-P i) of the secure computation apparatus Pi and a sharing unit (114-P -) of the secure computation apparatus P - share an arbitrary value r -, an arithmetic unit (112-P i) of the secure computation apparatus Pi calculates c+ = (a + +a -)(b + +b -)-a - b - +r + -r -, and an output unit (115-P i) of the secure computation apparatus Pi outputs c+ to the secure computation apparatus P+, and c+ is input to an input unit (115-P +) of the secure computation apparatus P+.
Non therapeutic use of a monoterpene for the prevention or alleviation of a non-pathological stress condition of an individual, wherein the monoterpene is selected from the group consisting of limonene, geraniol, geranyl acetate, isomenthone, perillyl alcohol, perillic acid, dihydroperillic acid and the respective methyl esters of these acids, carvone, citral and menthol, and wherein the monoterpene is administred orally, at a dose ranging between 10 mg/kg and 50 mg/kg.
Electrical line, in particular data line, having a transmission core surrounded by a shielding, said transmission core being concentrically surrounded by a line sheath, which has an outer layer made of an electrically insulating plastic and a second layer made of a semiconductive material arranged below said outer layer, wherein the transmission core is formed by at least one core pair and the at least one core pair does not comprise any pair shielding, wherein an intermediate sheath is arranged between the transmission core and the second layer, so that the second layer has a minimum distance from the transmission core, which is at least about 0.5 mm.