mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a power output by a photovoltaic installation - on the basis of at least one item of shading information from at least one adjacent photovoltaic installation, - wherein several items of shading information are provided by several adjacent photovoltaic installations, - wherein a temporal and spatial forecast in relation to an imminent shading is established on the basis of the shading information, - wherein the expected power output by the photovoltaic installation is determined on the basis of the imminent shading, - wherein a speed of a shading, in particular of a cloud drift, is established by maximizing a cross-correlation R ab R ab = 1 T ⋅ ∫ − T / 2 T / 2 P a t ⋅ P b t + τ dt, with τ = d ab ν Cloud, where a, b denote two photovoltaic installations, T denotes a considered time interval, P denotes a feed-in power, d ab denotes a distance between the photovoltaic installations a and b, v Cloud denotes an estimated speed of the cloud drift. - on the basis of at least one item of shading information from at least one adjacent photovoltaic installation, - wherein several items of shading information are provided by several adjacent photovoltaic installations, - wherein a temporal and spatial forecast in relation to an imminent shading is established on the basis of the shading information, - wherein the expected power output by the photovoltaic installation is determined on the basis of the imminent shading, - wherein a speed of a shading, in particular of a cloud drift, is established by maximizing a cross-correlation R ab R ab = 1 T ⋅ ∫ − T / 2 T / 2 P a t ⋅ P b t + τ dt, with τ = d ab ν Cloud, where a, b denote two photovoltaic installations, T denotes a considered time interval, P denotes a feed-in power, d ab denotes a distance between the photovoltaic installations a and b, v Cloud denotes an estimated speed of the cloud drift. a, b denote two photovoltaic installations, T denotes a considered time interval, P denotes a feed-in power, d ab denotes a distance between the photovoltaic installations a and b, v Cloud denotes an estimated speed of the cloud drift.
A radar ranging method, comprising: obtaining a first signal, wherein the first signal is a frequency domain signal obtained after low frequency suppression is performed in a beat frequency signal, and the beat frequency signal is a signal obtained by mixing a transmitted signal transmitted by a frequency modulated continuous wave FMCW radar and a received echo signal; performing mean gradient calculation on the first signal in frequency domain to obtain a second signal, wherein the mean gradient calculation is used to highlight a difference between a signal value of each sampling point in the first signal and a signal value of a surrounding sampling point; and calculating at least one of a speed or a distance of a target object based on a peak signal in the second signal. obtaining a first signal, wherein the first signal is a frequency domain signal obtained after low frequency suppression is performed in a beat frequency signal, and the beat frequency signal is a signal obtained by mixing a transmitted signal transmitted by a frequency modulated continuous wave FMCW radar and a received echo signal; performing mean gradient calculation on the first signal in frequency domain to obtain a second signal, wherein the mean gradient calculation is used to highlight a difference between a signal value of each sampling point in the first signal and a signal value of a surrounding sampling point; and calculating at least one of a speed or a distance of a target object based on a peak signal in the second signal.
A process for in situ synthesis of dispersion of ZnO nanoparticles in an oil additive composition, wherein the process comprises the steps of: a) dissolving a zinc salt in an alcoholic solvent and heating to 60- 120°C for 6-48h hours to obtain a suspension; b) centrifuging the suspension as obtained in step (a) and washing with deionized water to obtain a precipitate of layered base zinc LBZ; c) dispersing the layered base zinc precipitate as obtained step (b) in an alcohol and adding to base oil containing a dispersant; d) refluxing the mixture to obtain a colloidal suspension; evacuating the colloidal suspension at room temperature and heating at 60-90°C, followed by heating to 90-140°C for 45 to 120 minutes to obtain a dispersion of ZnO in the oil medium. a) dissolving a zinc salt in an alcoholic solvent and heating to 60- 120°C for 6-48h hours to obtain a suspension; b) centrifuging the suspension as obtained in step (a) and washing with deionized water to obtain a precipitate of layered base zinc LBZ; c) dispersing the layered base zinc precipitate as obtained step (b) in an alcohol and adding to base oil containing a dispersant; d) refluxing the mixture to obtain a colloidal suspension;
A variable pitch propeller with (a) a hub, (b) at least one propeller blade mounted on the hub and (c) a solid bearing element between propeller blade and hub, characterised by (d) a contact element which (i) is a seal that seals the hub against the propeller blade and (ii) electrically connects the hub and the propeller blade. (a) a hub, (b) at least one propeller blade mounted on the hub and (c) a solid bearing element between propeller blade and hub, characterised by (d) a contact element which (i) is a seal that seals the hub against the propeller blade and (ii) electrically connects the hub and the propeller blade. (i) is a seal that seals the hub against the propeller blade and (ii) electrically connects the hub and the propeller blade.
Carrier structure for solar panels, comprising: - at least one carrying frame configured to carry at least a part of at least one solar panel, and - at least one accessory which is coupleable to the carrying frame, wherein at least one of the at least one carrying frame and the at least one accessory comprises at least one coupling pin configured to be at least partly received in a complementary receiving space provided in at least one of the at least one accessory or the at least one carrying frame, characterised in that the receiving space is provided with at least one locking element for locking the accessory and the carrying frame to each other when the coupling pin is being fitted in the receiving space, and wherein the at least one locking element is configured to cut into an outer periphery of the coupling pin. - at least one carrying frame configured to carry at least a part of at least one solar panel, and - at least one accessory which is coupleable to the carrying frame, wherein at least one of the at least one carrying frame and the at least one accessory comprises at least one coupling pin configured to be at least partly received in a complementary receiving space provided in at least one of the at least one accessory or the at least one carrying frame, characterised in that the receiving space is provided with at least one locking element for locking the accessory and the carrying frame to each other when the coupling pin is being fitted in the receiving space, and wherein the at least one locking element is configured to cut into an outer periphery of the coupling pin.
An integrated circuit to drive a plurality of fluid actuation devices, the integrated circuit comprising: an ID line; a fire line (FIRE); a memory element; a first switch electrically coupled between the fire line (FIRE) and the memory element; a latch to latch a logic level on the ID line and to enable the first switch in response to a first logic level on the ID line and disable the first switch in response to a second logic level on the ID line; and wherein the fire line (FIRE) is electrically coupled to the plurality of fluid actuation devices, and configured to either activate a respective fluid actuation device when the fluid actuation devices are selected in response to the second logic level on the ID line or access the memory element for read and/or write operations when the memory element is selected in response to the first logic level on the ID line. an ID line; a fire line (FIRE); a memory element; a first switch electrically coupled between the fire line (FIRE) and the memory element; a latch to latch a logic level on the ID line and to enable the first switch in response to a first logic level on the ID line and disable the first switch in response to a second logic level on the ID line; and wherein the fire line (FIRE) is electrically coupled to the plurality of fluid actuation devices, and configured to either activate a respective fluid actuation device when the fluid actuation devices are selected in response to the second logic level on the ID line or access the memory element for read and/or write operations when the memory element is selected in response to the first logic level on the ID line.
A scaffold for use with a surgical staple cartridge, comprising: a first layer that is configured to mate to a cartridge deck, the first layer having multifilament fibers, with at least a portion of the multifilament fibers configured to be oriented in a direction that is substantially parallel to the cartridge deck, and a second layer formed of monofilament fibers (810, 814) that are configured to be oriented in a direction that is substantially non-parallel to the cartridge deck, wherein the monofilament fibers have a diameter that is less than an average diameter of the multifilament fibers; wherein the monofilament fibers are non-fixedly and slidably interconnected to the multifilament fibers of the first layer. a first layer that is configured to mate to a cartridge deck, the first layer having multifilament fibers, with at least a portion of the multifilament fibers configured to be oriented in a direction that is substantially parallel to the cartridge deck, and a second layer formed of monofilament fibers (810, 814) that are configured to be oriented in a direction that is substantially non-parallel to the cartridge deck, wherein the monofilament fibers have a diameter that is less than an average diameter of the multifilament fibers; wherein the monofilament fibers are non-fixedly and slidably interconnected to the multifilament fibers of the first layer.
A surgical apparatus, comprising: a reinforcement material; means (5010, 5036) for positioning the reinforcement material within a bronchial tube; means for stapling the bronchial tube so as to form a staple line (5052a, 5052b); and an actuator coupled to the reinforcement material that is adapted to move from a first state to a second, harder state after the stapling so as to facilitate sealing of the staple line (5052a, 5052b); characterized in that: the apparatus further comprises a location mechanism for use in positioning the means for stapling relative to a target site within the bronchial tube where the reinforcement material is positioned; and the means for stapling is a means for stapling the bronchial tube and the reinforcement material so as to form a staple line (5052a, 5052b) extending across the bronchial tube with the reinforcement material engaged within the staple line (5052a, 5052b). a reinforcement material; means (5010, 5036) for positioning the reinforcement material within a bronchial tube; means for stapling the bronchial tube so as to form a staple line (5052a, 5052b); and an actuator coupled to the reinforcement material that is adapted to move from a first state to a second, harder state after the stapling so as to facilitate sealing of the staple line (5052a, 5052b); the apparatus further comprises a location mechanism for use in positioning the means for stapling relative to a target site within the bronchial tube where the reinforcement material is positioned; and the means for stapling is a means for stapling the bronchial tube and the reinforcement material so as to form a staple line (5052a, 5052b) extending across the bronchial tube with the reinforcement material engaged within the staple line (5052a, 5052b).
Protective cap for a gas container, comprising: - a cap body, - a first pair of support uprights (3, 4) that are secured to the cap body and bear a first carry handle, and - a second pair of support uprights (6, 7) that are secured to the cap body and bear a second carry handle, the first and second carry handles (5, 8) surmounting the cap body, and the support uprights (3, 4) of the first pair of support uprights (3, 4) and the support uprights (6, 7) of the second pair of support uprights (6, 7) being fixed with respect to one another and fixed with respect to the cap body, characterized in that: - the support uprights of the first pair of support uprights (3, 4) and the support uprights of the second pair of support uprights (6, 7) comprise a common base fixed to the cap body, said support uprights of the first and second pairs of support uprights (3, 4; 6, 7) and the common bases of said support uprights (3, 4; 6, 7) forming Y- or V-shaped structures, - the support uprights (3, 4) of the first pair of support uprights (3, 4) form, with the support uprights (6, 7) of the second pair of support uprights (6, 7), an angle (a) of between 20° and 80°, and - the first and second carry handles (5, 8) are spaced apart from one another by a spacing of between 4 cm and 15 cm. - a cap body, - a first pair of support uprights (3, 4) that are secured to the cap body and bear a first carry handle, and - a second pair of support uprights (6, 7) that are secured to the cap body and bear a second carry handle, the first and second carry handles (5, 8) surmounting the cap body, and the support uprights (3, 4) of the first pair of support uprights (3, 4) and the support uprights (6, 7) of the second pair of support uprights (6, 7) being fixed with respect to one another and fixed with respect to the cap body, - the support uprights of the first pair of support uprights (3, 4) and the support uprights of the second pair of support uprights (6, 7) comprise a common base fixed to the cap body, said support uprights of the first and second pairs of support uprights (3, 4; 6, 7) and the common bases of said support uprights (3, 4; 6, 7) forming Y- or V-shaped structures, - the support uprights (3, 4) of the first pair of support uprights (3, 4) form, with the support uprights (6, 7) of the second pair of support uprights (6, 7), an angle (a) of between 20° and 80°, and - the first and second carry handles (5, 8) are spaced apart from one another by a spacing of between 4 cm and 15 cm.
Pressure gauge for measuring and indicating pressure comprising a body provided with a fastener surface that is intended to engage with a support for the pressure gauge, a manometric tube that is at least partially housed in the body, the manometric tube comprising an open upstream end that communicates with the outer side of the body, a helical, tubular, central portion (26, 126) connected to a downstream end comprising a rod forming a needle, the needle being angularly mobile in a reading area of the casing provided with markings or graduations, the reading area being closed by a translucent window, characterised in that the surface of the window facing the needle comprises an axis for positioning the manometric tube, the positioning axis being housed at the centre of the end of the helical portion (26, 126) of the tube that opens out into the reading area.
An antibody directed against ICOS, wherein said antibody is selected from the group consisting of Icos 145-1 and Icos 314-8, respectively obtainable from the hybridoma deposited at the CNCM on July 2, 2009 under the accession numbers CNCM I-4179 and CNCM I-4180.
A radar measuring device for level and/or limit level monitoring, comprising: - a radar signal source configured to generate, transmit and/or receive a radar signal, - an antenna arrangement configured to align the radar signal, - a plano-convex lens with a planar side, in particular a planar side facing a filling material, configured to focus the aligned radar signal, wherein the plane side of the plano-convex lens is designed as a contact surface to rest on the container during a measurement of the filling level and/or limit level of the filling material in a container, wherein the radar measuring device comprises a housing, wherein the antenna arrangement is disposed in the housing, wherein the housing comprises a bottom surface, wherein the bottom surface is at least partially formed by the plano-convex lens, wherein the convex side of the plano-convex lens protrudes into the antenna arrangement. - a radar signal source configured to generate, transmit and/or receive a radar signal, - an antenna arrangement configured to align the radar signal, - a plano-convex lens with a planar side, in particular a planar side facing a filling material, configured to focus the aligned radar signal,
A method for transferring an amount of a liquid drug from a supply container having stored the liquid drug to a collapsible reservoir, the method including the steps of: a) providing a fluid connection between the supply container and the collapsible reservoir; b) subjecting the liquid drug stored in the supply container to an environmental pressure; c) subjecting the collapsible reservoir to a positive pressure relative to the environmental pressure, thereby collapsing the collapsible reservoir and transferring gas comprised in the collapsible reservoir from the collapsible reservoir to the supply container; d) subjecting the collapsible reservoir to a negative pressure relative to the environmental pressure, thereby expanding the collapsible reservoir and transferring the amount of the liquid drug from the supply container to the collapsible reservoir. a) providing a fluid connection between the supply container and the collapsible reservoir; b) subjecting the liquid drug stored in the supply container to an environmental pressure; c) subjecting the collapsible reservoir to a positive pressure relative to the environmental pressure, thereby collapsing the collapsible reservoir and transferring gas comprised in the collapsible reservoir from the collapsible reservoir to the supply container; d) subjecting the collapsible reservoir to a negative pressure relative to the environmental pressure, thereby expanding the collapsible reservoir and transferring the amount of the liquid drug from the supply container to the collapsible reservoir.
Vehicle with at least one sealing profile on the vehicle body and at least one hose connection stub on the at least one sealing profile, said hose connection stub serving for connection to a water drainage hose, wherein the vehicle body has a square cutout for receiving the at least one sealing profile, wherein the hose connection stub and the at least one sealing profile are fitted from a first side of the vehicle body and wherein the water draining hose is fitted from a second side of the vehicle body which faces away from the first side, characterized in that the hose connection stub has a sealing protuberance with an upper square, wherein a lower square adjoins the latter, which is configured to be twistable in a plane with respect to the upper square or the sealing protuberance.
A method for preparing a flame retardant clay-polyolefin composite comprising: firstly, disrupting the layered structure of at least one clay, selected from the group consisting of layered silicates and non-silicate compounds, with an acid; combining said acid-treated clay with an early or late transition metal first catalyst component that becomes activated for olefin polymerization when in contact with the clay, in which said early or late transition metal catalyst is a non-metallocene catalyst, and contacting an olefin with the activated catalyst - clay combination either (a) in the absence of an alkylaluminum second catalyst component or (b) in the presence of an alkylaluminum or an alkylaluminoxane second catalyst component when the first catalyst component is an early transition metal catalyst, whereby to form a clay-polyolefin composite incorporating platelets of said clay. firstly, disrupting the layered structure of at least one clay, selected from the group consisting of layered silicates and non-silicate compounds, with an acid; combining said acid-treated clay with an early or late transition metal first catalyst component that becomes activated for olefin polymerization when in contact with the clay, in which said early or late transition metal catalyst is a non-metallocene catalyst, and contacting an olefin with the activated catalyst - clay combination either (a) in the absence of an alkylaluminum second catalyst component or (b) in the presence of an alkylaluminum or an alkylaluminoxane second catalyst component when the first catalyst component is an early transition metal catalyst, whereby to form a clay-polyolefin composite incorporating platelets of said clay.
A piston ring, comprising a piston ring body, wherein a DLC layer is applied on the outer surface of the piston ring body at least on the running surface as functional layer, wherein a protective layer is applied on the functional layer at least on partial surfaces of the piston ring running surface, wherein the protective layer consists of a material which is different from the material of the functional layer and has a greater thermal resistance than that, wherein the protective layer is present in form of superficial enclosures in recesses of the functional layer. wherein a DLC layer is applied on the outer surface of the piston ring body at least on the running surface as functional layer, wherein a protective layer is applied on the functional layer at least on partial surfaces of the piston ring running surface, wherein the protective layer consists of a material which is different from the material of the functional layer and has a greater thermal resistance than that, wherein the protective layer is present in form of superficial enclosures in recesses of the functional layer.
A computing device, comprising: a base comprising: a base surface configured to support the computing device on a supporting surface; and a front wall adjoining and extending away from the base surface; and a chassis adjoining the base, the chassis comprising: a planar user interactive surface comprising one or more user input components (112, 114); and an overhanging brim that extends beyond at least the front wall of the base and comprises at least one magnet (150, 152) configured to removably retain a stylus underneath the overhanging brim. a base surface configured to support the computing device on a supporting surface; and a front wall adjoining and extending away from the base surface; and a chassis adjoining the base, the chassis comprising: a planar user interactive surface comprising one or more user input components (112, 114); and an overhanging brim that extends beyond at least the front wall of the base and comprises at least one magnet (150, 152) configured to removably retain a stylus underneath the overhanging brim. a planar user interactive surface comprising one or more user input components (112, 114); and an overhanging brim that extends beyond at least the front wall of the base and comprises at least one magnet (150, 152) configured to removably retain a stylus underneath the overhanging brim.
A biodegradable polymeric film characterized in that the film is made of at least two film layers, of which one film layer has barrier properties with respect to gases, more particularly with respect to oxygen, and one film layer is based on PLA (polylactide) as a biodegradable polymeric base material and between each of two film layers an adhesion promoter based on acrylate, more particularly on methacrylate, which is modified with maleic anhydride, is arranged.
Cosmetic use of a composition comprising caffeine for preventing and/or treating seasonal hair thinning, wherein caffeine is present in the composition in a quantity of 0.1% to 10% by weight, and wherein seasonal hair thinning is defined as the reduction of hair diameter during the winter season as compared to the summer season.