mhurhangee/ep-ind-claims huggingface dataset:
A device for containing bone graft material, comprising: an outer sleeve extending longitudinally from a first end to a second end and sized and shaped to correspond to a profile of an outer surface of a target bone, the outer sleeve including a first proximal longitudinal split extending along a length thereof and a first distal longitudinal split extending along a length thereof; and an inner sleeve connected to the outer sleeve via at least one strut (116, 116') so that a bone graft collecting space (128 is defined therebetween, the inner sleeve sized and shaped to correspond to a profile of a medullary canal of the target bone, the inner sleeve including a second distal longitudinal split extending along a length thereof; characterized by an interstitial mesh extending circumferentially between the inner and outer sleeves (102, 104) to hold graft material in the bone graft collecting space, the interstitial mesh including a third longitudinal split extending along a length thereof to form a distal longitudinal slot along the length of the device so that a distal side of the device may be spread open to open the distal longitudinal slot from the outer sleeve, through the interstitial mesh and the inner sleeve to a space radially within the inner sleeve. an outer sleeve extending longitudinally from a first end to a second end and sized and shaped to correspond to a profile of an outer surface of a target bone, the outer sleeve including a first proximal longitudinal split extending along a length thereof and a first distal longitudinal split extending along a length thereof; and an inner sleeve connected to the outer sleeve via at least one strut (116, 116') so that a bone graft collecting space (128 is defined therebetween, the inner sleeve sized and shaped to correspond to a profile of a medullary canal of the target bone, the inner sleeve including a second distal longitudinal split extending along a length thereof; characterized by an interstitial mesh extending circumferentially between the inner and outer sleeves (102, 104) to hold graft material in the bone graft collecting space, the interstitial mesh including a third longitudinal split extending along a length thereof to form a distal longitudinal slot along the length of the device so that a distal side of the device may be spread open to open the distal longitudinal slot from the outer sleeve, through the interstitial mesh and the inner sleeve to a space radially within the inner sleeve.
A blending system comprising: a base housing a motor; a container operatively coupled to a top portion of the base; a blade assembly operatively disposed within the container, the blade assembly operatively engaged with the motor; a lid operatively attached to the container, wherein the lid is configured to cover an open end of the container; and an interlock detector comprising a memory, a processor, an image recognition component and at least one image sensor, that operatively captures images of the container and the lid, wherein the memory stores computer executable components including the image recognition component, and wherein the image recognition component determines, based at least in part on the captured images, whether the container, the lid, and the base are interlocked, and whether the container and the lid are in operative positions. a base housing a motor; a container operatively coupled to a top portion of the base; a blade assembly operatively disposed within the container, the blade assembly operatively engaged with the motor; a lid operatively attached to the container, wherein the lid is configured to cover an open end of the container; and an interlock detector comprising a memory, a processor, an image recognition component and at least one image sensor, that operatively captures images of the container and the lid, wherein the memory stores computer executable components including the image recognition component, and wherein the image recognition component determines, based at least in part on the captured images, whether the container, the lid, and the base are interlocked, and whether the container and the lid are in operative positions.
Aqueous compositions comprising (a) at least one crystalline or semicrystalline polyurethane polymer, (b) at least one polyisocyanate with aliphatically bonded isocyanate groups which is liquid at a temperature in the range of from 20 °C to 25 °C, (c) at least one or more compounds of elements of sub-group 5 and 6 of the periodic table in which the particular element has an oxidation level of at least +4, (d) optionally further auxiliary substances and additives, characterized in that the crystalline or semicrystalline polyurethane polymer (a) has a melting point in the range of between 42 °C and 100 °C and a glass transition temperature in the range of between -100 °C and -10 °C, measured by DSC in accordance with DIN 65467 at a heating up rate of 10 K/min. (a) at least one crystalline or semicrystalline polyurethane polymer, (b) at least one polyisocyanate with aliphatically bonded isocyanate groups which is liquid at a temperature in the range of from 20 °C to 25 °C, (c) at least one or more compounds of elements of sub-group 5 and 6 of the periodic table in which the particular element has an oxidation level of at least +4, (d) optionally further auxiliary substances and additives, characterized in that the crystalline or semicrystalline polyurethane polymer (a) has a melting point in the range of between 42 °C and 100 °C and a glass transition temperature in the range of between -100 °C and -10 °C, measured by DSC in accordance with DIN 65467 at a heating up rate of 10 K/min.
An image projection system comprising: an image projection device which emits projection light that is linearly polarized light; a screen which is irradiated with the projection light emitted from the image projection device; and a light absorption anisotropic layer which is disposed between the image projection device and the screen and through which the projection light passes, wherein the light absorption anisotropic layer contains a dichroic substance, and a transmittance central axis of the light absorption anisotropic layer is in a direction toward the screen. an image projection device which emits projection light that is linearly polarized light; a screen which is irradiated with the projection light emitted from the image projection device; and a light absorption anisotropic layer which is disposed between the image projection device and the screen and through which the projection light passes, wherein the light absorption anisotropic layer contains a dichroic substance, and a transmittance central axis of the light absorption anisotropic layer is in a direction toward the screen.
A power management system to manage energy sources for use with an energy-powered component, comprising an explosion proof enclosure including an electrical connector, characterised by: an energy source detector configured to determine, between a first and a second of the energy sources (102, 104), which has a lower state-of-charge and which has a higher state-of-charge; a controller configured to designate the energy source with the lower state-of-charge as a primary energy source and the other energy source as a secondary energy source; an energy source selector configured to selectively enable the primary energy source to provide power to the energy-powered component; a first switch between the first energy source and the energy source selector configured to selectively enable and disable the first energy source to provide power to the energy-powered component; and a second switch between the second energy source and the energy source selector configured to selectively enable and disable the second energy source to provide power to the energy-powered component, wherein the energy source detector is operably coupled to one of the first switch and the second switch and configured to selectively open and close the one of the first switch and the second switch. wherein the energy source detector, the controller, the energy source selector, and the first and the second energy sources (102, 202, 104, 204) are positioned within the explosion proof enclosure. an energy source detector configured to determine, between a first and a second of the energy sources (102, 104), which has a lower state-of-charge and which has a higher state-of-charge; a controller configured to designate the energy source with the lower state-of-charge as a primary energy source and the other energy source as a secondary energy source; an energy source selector configured to selectively enable the primary energy source to provide power to the energy-powered component; a first switch between the first energy source and the energy source selector configured to selectively enable and disable the first energy source to provide power to the energy-powered component; and a second switch between the second energy source and the energy source selector configured to selectively enable and disable the second energy source to provide power to the energy-powered component, wherein the energy source detector is operably coupled to one of the first switch and the second switch and configured to selectively open and close the one of the first switch and the second switch. wherein the energy source detector, the controller, the energy source selector, and the first and the second energy sources (102, 202, 104, 204) are positioned within the explosion proof enclosure.
A pharmaceutical composition for potentiating bio-efficacy of drugs for the treatment of bacterial multi-drug resistance infections wherein the composition comprises boeravinone B of formula 1, in combination with an effective amount of antibacterial agents, along with pharmaceutically acceptable carrier.
An expandable implant for placement in a sinus or nasal cavity comprising: a hub, the hub comprising a plurality of apertures extending through the hub, each of said plurality of apertures comprising a first aperture segment and a second aperture segment separated by a hollow interior of the hub; and a plurality of filaments, wherein each filament of the plurality of filaments is positioned in a corresponding aperture of the plurality of apertures such that a portion of the filament extends through each of the first aperture segment, the second aperture segment and the hollow interior of the hub to define a first leg on a first side of the hub and a second leg on the second side of the hub. a hub, the hub comprising a plurality of apertures extending through the hub, each of said plurality of apertures comprising a first aperture segment and a second aperture segment separated by a hollow interior of the hub; and a plurality of filaments, wherein each filament of the plurality of filaments is positioned in a corresponding aperture of the plurality of apertures such that a portion of the filament extends through each of the first aperture segment, the second aperture segment and the hollow interior of the hub to define a first leg on a first side of the hub and a second leg on the second side of the hub.
A method of illuminating diurnal avians with artificial light sources, the method comprising: generating a first light having a first spectral content (305; 405; 505) between 380 nm (nanometers) and 780 nm; converting the first light to a second light comprising a second spectral content having at least two local maxima in relative intensity; and, supplying the second light comprising the second spectral content to a substantially enclosed habitat for diurnal avians located in a livestock facility; characterized in that the second spectral content has at least one local maximum in relative intensity at a wavelength within 15 nm of a wavelength at which a predetermined characteristic visual spectral response of the diurnal avian has a local maximum, the at least one local maximum in relative intensity of the second spectral content is at a wavelength below 400 nm. generating a first light having a first spectral content (305; 405; 505) between 380 nm (nanometers) and 780 nm; converting the first light to a second light comprising a second spectral content having at least two local maxima in relative intensity; and, supplying the second light comprising the second spectral content to a substantially enclosed habitat for diurnal avians located in a livestock facility; characterized in that the second spectral content has at least one local maximum in relative intensity at a wavelength within 15 nm of a wavelength at which a predetermined characteristic visual spectral response of the diurnal avian has a local maximum, the at least one local maximum in relative intensity of the second spectral content is at a wavelength below 400 nm.
A method of decoding a video stream encoded using video point cloud coding, the method being performed by at least one processor and comprising: obtaining a geometry-reconstructed point cloud; dividing the geometry-reconstructed point cloud into a plurality of cells, wherein a cell of the plurality of cells comprises a first plurality of points; determining a plane representing the first plurality of points; generating a second plurality of points by projecting the first plurality of points onto the plane; obtaining a smoothed geometry-reconstructed point cloud based on the second plurality of points; and reconstructing a dynamic point cloud using the smoothed geometry-reconstructed point cloud; wherein the plane is determined based on an average position p of the plurality of points, wherein p is determined as follows: p ̅ = ∑ i = 1 N x i N wherein x i represents a point of the plurality of points having an index i, and N represents a number of the plurality of points; wherein a covariance matrix C of the plurality of points is determined as follows: C = ∑ i = 1 N x i − p ̅ x i − p ̅ T N wherein T represents a transverse operation, wherein eigenvalues of C are represented as λ 3 < λ 2 < λ 1 wherein eigenvectors of λ 3, λ 2, and λ 1 are represented as v 3, v 2, v 1, and wherein the plane is determined based on p and v 3; wherein the plane passes through p and has a normal vector direction which is a same direction as a direction of v 3. obtaining a geometry-reconstructed point cloud; dividing the geometry-reconstructed point cloud into a plurality of cells, wherein a cell of the plurality of cells comprises a first plurality of points; determining a plane representing the first plurality of points; generating a second plurality of points by projecting the first plurality of points onto the plane; obtaining a smoothed geometry-reconstructed point cloud based on the second plurality of points; and reconstructing a dynamic point cloud using the smoothed geometry-reconstructed point cloud; wherein the plane is determined based on an average position p of the plurality of points, wherein p is determined as follows: p ̅ = ∑ i = 1 N x i N wherein x i represents a point of the plurality of points having an index i, and N represents a number of the plurality of points; wherein a covariance matrix C of the plurality of points is determined as follows: C = ∑ i = 1 N x i − p ̅ x i − p ̅ T N wherein T represents a transverse operation, wherein eigenvalues of C are represented as λ 3 < λ 2 < λ 1 wherein eigenvectors of λ 3, λ 2, and λ 1 are represented as v 3, v 2, v 1, and wherein the plane is determined based on p and v 3; wherein the plane passes through p and has a normal vector direction which is a same direction as a direction of v 3.
A flux cored electrode comprising barium and lithium in a mass ratio of total barium to total lithium of from about 8:1 to about 12:1, wherein the electrode comprises a core, said core having a core composition that includes: from about 35% to about 55% barium fluoride; and from about 2% to about 12% lithium fluoride by weight of the core materials. from about 35% to about 55% barium fluoride; and from about 2% to about 12% lithium fluoride by weight of the core materials.
A crystalline salt of a compound having the structure of formula, wherein the salt is a hydrochloride salt and has 2θ values 16.70; 17.26; 21.09; and 22.69.
A distribution board system, comprising: a distribution board configured to distribute electric power supplied from an electric power provider to branch circuits, and supply electric power to apparatuses connected to the branch circuits, wherein the distribution board comprises: one housing box configured to house two or more types of internal units including a trunk switch to which a trunk wiring from the electric power provider is to be connected, and branch switches to which the branch circuits are to be connected, the housing box further comprising: a communication unit configured to communicate with a power meter having a communication function, and a function unit being configured to perform control regarding power supply to one of the apparatuses based on a communication content with the power meter, a power supply unit configured to supply electric power corresponding to an input power supply specification of the function unit to the function unit, and a measurement unit configured to measure power consumption in each of the branch circuits, wherein the distribution board system comprises, as the function unit, a control unit configured to control the apparatus based on a measurement result by the measurement unit. a distribution board configured to distribute electric power supplied from an electric power provider to branch circuits, and supply electric power to apparatuses connected to the branch circuits, wherein the distribution board comprises: one housing box configured to house two or more types of internal units including a trunk switch to which a trunk wiring from the electric power provider is to be connected, and branch switches to which the branch circuits are to be connected, the housing box further comprising: a communication unit configured to communicate with a power meter having a communication function, and a function unit being configured to perform control regarding power supply to one of the apparatuses based on a communication content with the power meter, a power supply unit configured to supply electric power corresponding to an input power supply specification of the function unit to the function unit, and a measurement unit configured to measure power consumption in each of the branch circuits, wherein the distribution board system comprises, as the function unit, a control unit configured to control the apparatus based on a measurement result by the measurement unit. a communication unit configured to communicate with a power meter having a communication function, and a function unit being configured to perform control regarding power supply to one of the apparatuses based on a communication content with the power meter, a power supply unit configured to supply electric power corresponding to an input power supply specification of the function unit to the function unit, and a measurement unit configured to measure power consumption in each of the branch circuits, wherein the distribution board system comprises, as the function unit, a control unit configured to control the apparatus based on a measurement result by the measurement unit.
Reactor suitable for continuous preparation of hydrogen sulphide by exothermic reaction of sulphur and hydrogen to form a final product gas mixture P final comprising hydrogen sulphide and sulphur at elevated temperature and elevated pressure relative to standard conditions, said reactor comprising - a lower reactor region suitable for accommodating a sulphur melt, - one or more non-pressure-bearing first cavern(s) and at least one supply device (5, 5a) suitable for controlled supply of pressurized gaseous hydrogen per first cavern, said caverns being suitable for at least temporary accommodation of a product gas mixture P 1 which forms in exothermic reaction and comprises hydrogen sulphide, sulphur and hydrogen, - one or more non-pressure bearing second cavern(s) which are arranged above the first cavern(s) and are suitable for at least temporary accommodation of the product gas mixture P 1 formed in the first cavern(s) and for formation of further hydrogen sulphide by exothermic reaction of sulphur and hydrogen to form a product gas mixture P 2, and - a gas collecting region suitable for accommodating the product gas mixture P final at elevated temperature and elevated pressure relative to standard conditions, characterized in that at least one of the second caverns comprises at least one supply device (9, 9a) suitable for controlled supply of pressurized gaseous hydrogen. - a lower reactor region suitable for accommodating a sulphur melt, - one or more non-pressure-bearing first cavern(s) and at least one supply device (5, 5a) suitable for controlled supply of pressurized gaseous hydrogen per first cavern, said caverns being suitable for at least temporary accommodation of a product gas mixture P 1 which forms in exothermic reaction and comprises hydrogen sulphide, sulphur and hydrogen, - one or more non-pressure bearing second cavern(s) which are arranged above the first cavern(s) and are suitable for at least temporary accommodation of the product gas mixture P 1 formed in the first cavern(s) and for formation of further hydrogen sulphide by exothermic reaction of sulphur and hydrogen to form a product gas mixture P 2, and - a gas collecting region suitable for accommodating the product gas mixture P final at elevated temperature and elevated pressure relative to standard conditions, characterized in that at least one of the second caverns comprises at least one supply device (9, 9a) suitable for controlled supply of pressurized gaseous hydrogen.
An article of footwear (100, 300) comprising: a) a knitted component including an instep area; and b) a strap covering over the knitted component in the instep area, wherein the strap includes an inner side; wherein the knitted component comprises: i) a knit tab portion; ii) a ribbing structure in at least the instep area and comprising at least two ribbing members; and iii) a base portion positioned between the at least two ribbing members; and wherein the inner side comprises an engagement member in contact with the ribbing structure, and wherein the engagement member protrudes out and is positioned between at least two ribbing members comprising the ribbing structure when the strap is secured to the knitted component. a) a knitted component including an instep area; and b) a strap covering over the knitted component in the instep area, wherein the strap includes an inner side; i) a knit tab portion; ii) a ribbing structure in at least the instep area and comprising at least two ribbing members; and iii) a base portion positioned between the at least two ribbing members; and
A method of operating an electric power generator set comprising an internal combustion piston engine coupled with an electric generator in which method the state of the electric grid, to which the generator is connected, is monitored, and if a disturbance in the grid is detected the control of the internal combustion engine is effected based on the grid disturbance, characterized in that in the method gaseous fuel is fed as a main fuel into combustion chambers of the engine along with the combustion air, and the mixture of the gaseous fuel and air is ignited by injecting an amount of pilot fuel, and during the normal operation of the engine the timing of the pilot fuel injection is controlled based on engine's operational parameters to minimize nitrogen oxide and unburned hydrocarbons emission to the ambient air and to produce required load, and in case of a disturbance in the grid is detected, the discrepancy between required load and produced power during the grid disturbance is minimized by an independent control of timing and an independent control of duration of the pilot fuel injection effected in a time period of less than 20 ms, based on the grid disturbance, and the timing of the pilot fuel injection is retarded by predetermined crank angle due to the disturbance, such that the retarding of a set crank angle value determining the start of pilot fuel injection is proportional to the load of the engine.