mhurhangee/ep-ind-claims huggingface dataset:
A disposable and removable cartridge for providing easy access to test strips comprising: a flexible body comprising a moisture barrier film and having surfaces which define a resealable cavity containing the test strips; a rigid lid attached to the flexible body and having surfaces which abut with the surfaces of the flexible body for enclosing the resealable cavity; and a retaining member provided within the cavity and releasably retaining the test strips in a stacked configuration, wherein the disposable and removable cartridge has an open configuration and a closed configuration, in which: the open configuration comprises the rigid lid being moved relative to the flexible body, such that the test strips are accessible in the cavity, and the closed configuration comprises the rigid lid abutting with the flexible body, such that the test strips are sealed within in the cavity. a flexible body comprising a moisture barrier film and having surfaces which define a resealable cavity containing the test strips; a rigid lid attached to the flexible body and having surfaces which abut with the surfaces of the flexible body for enclosing the resealable cavity; and a retaining member provided within the cavity and releasably retaining the test strips in a stacked configuration, wherein the disposable and removable cartridge has an open configuration and a closed configuration, in which: the open configuration comprises the rigid lid being moved relative to the flexible body, such that the test strips are accessible in the cavity, and the closed configuration comprises the rigid lid abutting with the flexible body, such that the test strips are sealed within in the cavity. the open configuration comprises the rigid lid being moved relative to the flexible body, such that the test strips are accessible in the cavity, and the closed configuration comprises the rigid lid abutting with the flexible body, such that the test strips are sealed within in the cavity.
A wall or roof system comprising: a) a structural element having a first and a second side; b) an insulation element having first and second major surfaces, the insulation element arranged with its first major surface proximal to the second side of the structural element, the insulation element comprising an internal layer proximal to the structural element, and an external layer distal from the structural element, both layers being distinct from each other and both layers extending in the length and width direction of the insulation element; c) a spacer fastening device for fixation of the insulation element to the structural element, spacer fastening device adapted to hold the external layer and therefore also the second major surface of the insulation element spaced at a defined distance from the second side of the structural element, this distance being adjustable by acting on the spacer fastening device; wherein the external layer comprises fibrous insulating material with a density lower than 140 kg/m 3; the fibrous insulating material in the external layer has a laminar configuration of the fibers so that the fibers are predominantly oriented parallel to the first and second major surfaces (31, 32); and the internal layer comprises fibrous insulating material having a density lower than 60 kg/m 3, wherein the fibrous insulating material of the internal layer is mineral wool and has a laminar configuration of the fibers so that the fibers are predominantly oriented parallel to the first and second major surfaces (31, 32). a) a structural element having a first and a second side; b) an insulation element having first and second major surfaces, the insulation element arranged with its first major surface proximal to the second side of the structural element, the insulation element comprising an internal layer proximal to the structural element, and an external layer distal from the structural element, both layers being distinct from each other and both layers extending in the length and width direction of the insulation element; c) a spacer fastening device for fixation of the insulation element to the structural element, spacer fastening device adapted to hold the external layer and therefore also the second major surface of the insulation element spaced at a defined distance from the second side of the structural element, this distance being adjustable by acting on the spacer fastening device; the external layer comprises fibrous insulating material with a density lower than 140 kg/m 3; the fibrous insulating material in the external layer has a laminar configuration of the fibers so that the fibers are predominantly oriented parallel to the first and second major surfaces (31, 32); and the internal layer comprises fibrous insulating material having a density lower than 60 kg/m 3, wherein the fibrous insulating material of the internal layer is mineral wool and has a laminar configuration of the fibers so that the fibers are predominantly oriented parallel to the first and second major surfaces (31, 32).
A releasable protegrin moiety polymer conjugate having the structure: where mPEG is CH 3 O-(CH 2 CH 2 O) n CH 2 CH 2 -, n is in a range from 10 to 1800, and ∼NH-PRO is an amino group of the protegrin moiety. mPEG is CH 3 O-(CH 2 CH 2 O) n CH 2 CH 2 -, n is in a range from 10 to 1800, and ∼NH-PRO is an amino group of the protegrin moiety.
Method for calculating a set position ( Cons_pos_turb) of a turbocharger of a heat engine provided with a compressor and a turbine intended to be driven by gases exhaust, characterized in that said method comprises: - a step of determining a suitable power P adapt determined from the following formula: P adapt = P comp P 4 T 3 With P comp a power sent to the compressor; P 4 a pressure downstream of the turbine; T 3 a temperature upstream of the turbine. - a step of determining a suitable flow rate Q adapt determined from the following formula: Q adapt = Q ech T 3 P 4 With Q ech exhaust gas flow; - a step of determining the set position ( Cons_pos_turb) of the turbocharger from the adapted power P adapt and the adapted flow rate Q adapt, And - a step of controlling the turbocharger according to the set point position ( Cons_pos_turb) previously determined. - a step of determining a suitable power P adapt determined from the following formula: P adapt = P comp P 4 T 3 With P comp a power sent to the compressor; P 4 a pressure downstream of the turbine; T 3 a temperature upstream of the turbine. - a step of determining a suitable flow rate Q adapt determined from the following formula: Q adapt = Q ech T 3 P 4 With Q ech exhaust gas flow; - a step of determining the set position ( Cons_pos_turb) of the turbocharger from the adapted power P adapt and the adapted flow rate Q adapt, And - a step of controlling the turbocharger according to the set point position ( Cons_pos_turb) previously determined.
A composition for real-time polymerase reaction comprising a fluorescence material linked-nucleotide represented by Formula, and a polymerase which is selected from the group consisting of Taq DNA polymerase and Therminator γ DNA polymerase: wherein R 1 is an adenine or guanine, R 2 is -(CH 2 OCH 2)m-CH 2 NH-, -NHCH 2 -(CH 2 OCH 2)m-CH 2 NH- -(CH 2)n-NH-, or -NH-(CH 2)n-NH-, wherein m is an integer from 1 to 20, and n is an integer from 2 to 60, R 3 is a fluorescence material, and Y is O or S. wherein R 1 is an adenine or guanine, R 2 is -(CH 2 OCH 2)m-CH 2 NH-, -NHCH 2 -(CH 2 OCH 2)m-CH 2 NH- -(CH 2)n-NH-, or -NH-(CH 2)n-NH-, wherein m is an integer from 1 to 20, and n is an integer from 2 to 60, R 3 is a fluorescence material, and Y is O or S.
A pillar-shaped Luneberg lens antenna, comprising two metal plates parallel to each other and a pillar-shaped Luneberg lens disposed between the two metal plates, wherein the pillar-shaped Luneberg lens comprises a main layer and a compensation layer that are of the pillar-shaped Luneberg lens, and the compensation layer is configured to compensate for equivalent dielectric constants of the main layer of the pillar-shaped Luneberg lens in a TEM mode and/or a TE10 mode, so that the distribution of equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode and the TE10 mode is consistent with the distribution of preset dielectric constants of a classic Luneberg lens which is a spherical lens with a graded refractive index n = 2 − r / R 2, wherein r is a distance from each dielectric part in the classic Luneberg lens to a sphere center of the classic Luneberg lens, and R is a radius of the classic Luneberg lens; when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction vertical to the metal plate; and when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TE10 mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction parallel to the metal plate. the pillar-shaped Luneberg lens comprises a main layer and a compensation layer that are of the pillar-shaped Luneberg lens, and the compensation layer is configured to compensate for equivalent dielectric constants of the main layer of the pillar-shaped Luneberg lens in a TEM mode and/or a TE10 mode, so that the distribution of equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode and the TE10 mode is consistent with the distribution of preset dielectric constants of a classic Luneberg lens which is a spherical lens with a graded refractive index n = 2 − r / R 2, wherein r is a distance from each dielectric part in the classic Luneberg lens to a sphere center of the classic Luneberg lens, and R is a radius of the classic Luneberg lens; when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction vertical to the metal plate; and when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TE10 mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction parallel to the metal plate.
A surface treatment method for a metal material, comprising: applying diluted sulfuric acid to a surface of the metal material that is composed primarily of iron, performing a heat treatment on the metal material in the presence of at least one of CO, CO 2 and organic gas under nitriding conditions under which a nitrided layer is formed in a superficial layer of the metal material after the application of the diluted sulfuric acid to form a carbon film which includes at least one of carbon nanocoils, carbon nanotubes and carbon nanofilaments on a surface of the nitrided layer of the metal material. applying diluted sulfuric acid to a surface of the metal material that is composed primarily of iron, performing a heat treatment on the metal material in the presence of at least one of CO, CO 2 and organic gas under nitriding conditions under which a nitrided layer is formed in a superficial layer of the metal material after the application of the diluted sulfuric acid to form a carbon film which includes at least one of carbon nanocoils, carbon nanotubes and carbon nanofilaments on a surface of the nitrided layer of the metal material.
A single-phase emulsifiable concentrate composition, comprising (i) the pesticide tefluthrin; (ii) a solvent for dissolving tefluthrin; (iii) a water-soluble emulsifying surfactant system enabling an oil in water emulsion to be formed when the emulsifiable concentrate composition is diluted with an aqueous solution; (iv) a non-aqueous polar solvent for diluting the water-soluble emulsifying surfactant system; (v) a C 2 -C 10 -monohydric alcohol to provide physical compatibility between (a) hydrophobic component (ii) and (b) hydrophilic components (iii) and (iv), wherein the C 2 -C 10 -monohydric alcohol is selected from ethanol, 1-hexanol, 1-octanol and 1-decanol, in particular 1-octanol. (i) the pesticide tefluthrin; (ii) a solvent for dissolving tefluthrin; (iii) a water-soluble emulsifying surfactant system enabling an oil in water emulsion to be formed when the emulsifiable concentrate composition is diluted with an aqueous solution; (iv) a non-aqueous polar solvent for diluting the water-soluble emulsifying surfactant system; (v) a C 2 -C 10 -monohydric alcohol to provide physical compatibility between (a) hydrophobic component (ii) and (b) hydrophilic components (iii) and (iv), wherein the C 2 -C 10 -monohydric alcohol is selected from ethanol, 1-hexanol, 1-octanol and 1-decanol, in particular 1-octanol.
A vehicle driving support device comprising: a vehicle behavior calculation module configured to calculate a current behavior value of each wheel suspended by a suspension mechanism; a driving support image generation unit configured to generate a driving support image in which a behavior image made by imaging the behavior value obtained for each wheel is disposed at a corresponding position in a vehicle image; and a monitor configured to display the driving support image, characterized in that the vehicle behavior calculation module is provided with an idling ratio calculation unit configured to find an idling ratio of the wheel as one kind of the behavior value, wherein the idling ratio of each wheel is obtained as a ratio of the wheel speed of the wheel to a reference wheel speed, which is a minimum value of the wheel speed; and the behavior image includes a wheel image that expresses the idling ratio of the wheel. a vehicle behavior calculation module configured to calculate a current behavior value of each wheel suspended by a suspension mechanism; a driving support image generation unit configured to generate a driving support image in which a behavior image made by imaging the behavior value obtained for each wheel is disposed at a corresponding position in a vehicle image; and a monitor configured to display the driving support image, characterized in that the vehicle behavior calculation module is provided with an idling ratio calculation unit configured to find an idling ratio of the wheel as one kind of the behavior value, wherein the idling ratio of each wheel is obtained as a ratio of the wheel speed of the wheel to a reference wheel speed, which is a minimum value of the wheel speed; and the behavior image includes a wheel image that expresses the idling ratio of the wheel.
A carrier (612; 1100; 1300; 1400; 1700; 2600) comprising: a carrier body (615; 1101; 1303; 1403; 1706) that is removably connectable to a tray that holds food in a cabinet; and a transceiver being connected to said carrier body on a first side, said transceiver being configured so that a reader identifies the tray, characterized in that said transceiver is a first transceiver, further comprising a second transceiver, wherein said second transceiver is connected to said carrier body on a second side, and wherein said first transceiver and said second transceiver are configured so that a reader identifies the same tray by each of said first transceiver and said second transceiver. a carrier body (615; 1101; 1303; 1403; 1706) that is removably connectable to a tray that holds food in a cabinet; and a transceiver being connected to said carrier body on a first side, said transceiver being configured so that a reader identifies the tray, characterized in that said transceiver is a first transceiver, further comprising a second transceiver, wherein said second transceiver is connected to said carrier body on a second side, and wherein said first transceiver and said second transceiver are configured so that a reader identifies the same tray by each of said first transceiver and said second transceiver.
An orally dispersible tablet formulation comprising: a. 3% to 30% aripiprazole monohydrate b. 10% to 25% mannitol c. 8% to 17% pregelatinized starch d. 5 %to 15% microcrystalline cellulose and guar gum e. 20% to 50% microcrystalline cellulose f. 4% to 20% croscarmellose sodium g. 0.1% to 4% sucralose h. 0.1% to 0.7% citric acid i. 0.5% to 4% vanilla-flavored j. 0,05% to 3% colloidal silicon dioxide k. 1% to 5% sodium stearil fumarate l. 0,0001% to 3% red iron oxide by weight of total tablet. a. 3% to 30% aripiprazole monohydrate b. 10% to 25% mannitol c. 8% to 17% pregelatinized starch d. 5 %to 15% microcrystalline cellulose and guar gum e. 20% to 50% microcrystalline cellulose f. 4% to 20% croscarmellose sodium g. 0.1% to 4% sucralose h. 0.1% to 0.7% citric acid i. 0.5% to 4% vanilla-flavored j. 0,05% to 3% colloidal silicon dioxide k. 1% to 5% sodium stearil fumarate l. 0,0001% to 3% red iron oxide
An organophosphorous hydrolase variant, comprising a substitution at one or more positions corresponding to positions K34, D37, D38, P58, G59, R61, D63, D91, I94, C96, M111, E164, F165, K166, M167, F169, Q170, E171, R193, F194, T216, R219, D243, E245, Q246, E247, G248, P250, W266, D290, K291, S293, and N312 of the mature polypeptide of SEQ ID NO: 2, wherein the variant has improved organophosphorous hydrolase activity compared to the parent enzyme, and wherein the variant has at least 90%, but less than 100% sequence identity to the mature polypeptide of SEQ ID NO: 2.
An ophthalmic lens system comprising: a lens body with a curved outer surface; an assembly including a plurality of spaced apart nanostructures, said assembly covering at least a portion of the curved outer surface, characterized in that the plurality of spaced apart nanostructures comprise nanorods extending from said portion of the curved outer surface, such that a central longitudinal axis of each one of said plurality of spaced apart nanorods extends at an oblique angle with respect to the corresponding portion of the curved outer surface. a lens body with a curved outer surface; an assembly including a plurality of spaced apart nanostructures, said assembly covering at least a portion of the curved outer surface, characterized in that the plurality of spaced apart nanostructures comprise nanorods extending from said portion of the curved outer surface, such that a central longitudinal axis of each one of said plurality of spaced apart nanorods extends at an oblique angle with respect to the corresponding portion of the curved outer surface.
A method comprising steps of: A) obtaining, by a computing device, first information comprising requirements for device communication according to a wireless communication protocol; B) obtaining, at the computing device, second information about at least one capability of the computing device, wherein the computing device comprises hardware components, the second information being sufficient to determine whether the computing device is adapted to implement a software defined radio for communicating according to the wireless communication protocol and the second information comprising at least one capability of the hardware components; and C) determining (306, 312; 406, 412), based on the first and second information, whether the computing device is adapted to implement a software defined radio for communicating according to the wireless communication protocol. A) obtaining, by a computing device, first information comprising requirements for device communication according to a wireless communication protocol; B) obtaining, at the computing device, second information about at least one capability of the computing device, wherein the computing device comprises hardware components, the second information being sufficient to determine whether the computing device is adapted to implement a software defined radio for communicating according to the wireless communication protocol and the second information comprising at least one capability of the hardware components; and C) determining (306, 312; 406, 412), based on the first and second information, whether the computing device is adapted to implement a software defined radio for communicating according to the wireless communication protocol.
An electrical testing method of an in-cell touch screen, the in-cell touch screen comprising: a display electrode, a driving line and a detecting line, with the detecting line being intersected with the driving line, wherein the method comprises: step 1, floating the display electrode, applying a predetermined voltage to one column of adjacent columns of the driving line or one row of adjacent rows of the driving line, grounding the other column of the adjacent columns of the driving line or the other row of the adjacent rows of the driving line; and/or applying a predetermined voltage to one column of adjacent columns of the detecting line or one row of adjacent rows of the detecting line, grounding the other column of the adjacent columns of the detecting or the other row of the adjacent rows of the detecting line; and step 2, observing a display picture of the in-cell touch screen, and judging whether the driving line or the detecting line is shorted and/or opened. a display electrode, a driving line and a detecting line, with the detecting line being intersected with the driving line, wherein the method comprises: step 1, floating the display electrode, applying a predetermined voltage to one column of adjacent columns of the driving line or one row of adjacent rows of the driving line, grounding the other column of the adjacent columns of the driving line or the other row of the adjacent rows of the driving line; and/or applying a predetermined voltage to one column of adjacent columns of the detecting line or one row of adjacent rows of the detecting line, grounding the other column of the adjacent columns of the detecting or the other row of the adjacent rows of the detecting line; and step 2, observing a display picture of the in-cell touch screen, and judging whether the driving line or the detecting line is shorted and/or opened. step 1, floating the display electrode, applying a predetermined voltage to one column of adjacent columns of the driving line or one row of adjacent rows of the driving line, grounding the other column of the adjacent columns of the driving line or the other row of the adjacent rows of the driving line; and/or applying a predetermined voltage to one column of adjacent columns of the detecting line or one row of adjacent rows of the detecting line, grounding the other column of the adjacent columns of the detecting or the other row of the adjacent rows of the detecting line; and step 2, observing a display picture of the in-cell touch screen, and judging whether the driving line or the detecting line is shorted and/or opened.