mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic transducer including one or a plurality of ultrasonic emitting units, the wavefronts of ultrasonic waves emitted by the one or the plurality of ultrasonic emitting units are sphere surfaces with uniform radius, the one or the plurality of ultrasonic emitting units have a function of reflecting ultrasound, characterized in that the one ultrasonic emitting unit is configured to form a spherical resonant cavity or the plurality of ultrasonic emitting units are configured to form a spherical resonant cavity collectively, an internal cavity of said spherical resonant cavity is a complete spherical shell shaped cavity or a cross-sectional spherical shell shaped cavity with a spherical center therein, curves forming the internal cavity include circumferential curves passing through the spherical center, so the spherical resonant cavity forms a closed sound path in the circumferential direction which is perpendicular to the central axis, and the ultrasonic waves emitted by the one or the plurality of ultrasonic emitting units are focused on an area in which the spherical center of said spherical resonant cavity is located.
A transport policy requesting node for requesting a transport policy for a bearer of a session in a communications system comprising a policy decision function (220; 320), the transport policy requesting node comprising an event handling mechanism adapted to detect a triggering event triggering the selection of a transport policy for the bearer of a session; a transport policy selection mechanism (525, 530) adapted to select a transport policy and transmit a policy request indicative of the selected transport policy to the policy decision function; the transport policy requesting node characterised by a context information handling mechanism (515, 520) adapted to receive information relating to a context relevant to the session, the information used in the selection of the transport policy.
A pharmaceutical lyophilized preparation comprising: botulinum toxin, polysorbate, and methionine; and one or more components selected from the group consisting of sugar, sugar alcohol, and an ionic compound, wherein the sugar when present is included in an amount of 0.1 to 50 mg with respect to 100 units of the botulinum toxin, wherein the sugar alcohol when present is included in an amount of 0.1 to 50 mg with respect to 100 units of the botulinum toxin, and wherein the ionic compound when present is included in an amount of 0.1 to 10 mg with respect to 100 units of the botulinum toxin. botulinum toxin, polysorbate, and methionine; and one or more components selected from the group consisting of sugar, sugar alcohol, and an ionic compound, wherein the sugar when present is included in an amount of 0.1 to 50 mg with respect to 100 units of the botulinum toxin, wherein the sugar alcohol when present is included in an amount of 0.1 to 50 mg with respect to 100 units of the botulinum toxin, and wherein the ionic compound when present is included in an amount of 0.1 to 10 mg with respect to 100 units of the botulinum toxin.
A grain fortification process comprising the steps of: feeding raw food grains into a fortification reactor; degassing the said raw food grain by subjecting the said fortification reactor to a preset degassing condition; adding a homogenized fortification solution in the said fortification reactor via a homogenizer; subjecting the said degassed raw food grains to an adsorption process to produce a fortified food grain, wherein the said adsorption process comprises adsorption of the said homogenized fortification solution by the said degassed raw food grain inside the fortification reactor under a predefined controlled ambient adsorption conditions; and extracting the said fortified food grain from the said fortification reactor, characterized in that said adsorption process comprises filling micro pores of the raw food grains by a homogenized fortification solution having molecular size of less than 2 nanometer (nm) in diameter, wherein said micro pores are less than 2 nm in diameter, and thereafter filling meso pores of the raw food grains by a homogenized fortification solution having molecular size of 2-5 nm in diameter, wherein said meso pores are 2-5 nm in diameter. feeding raw food grains into a fortification reactor; degassing the said raw food grain by subjecting the said fortification reactor to a preset degassing condition; adding a homogenized fortification solution in the said fortification reactor via a homogenizer; subjecting the said degassed raw food grains to an adsorption process to produce a fortified food grain, wherein the said adsorption process comprises adsorption of the said homogenized fortification solution by the said degassed raw food grain inside the fortification reactor under a predefined controlled ambient adsorption conditions; and extracting the said fortified food grain from the said fortification reactor, characterized in that said adsorption process comprises filling micro pores of the raw food grains by a homogenized fortification solution having molecular size of less than 2 nanometer (nm) in diameter, wherein said micro pores are less than 2 nm in diameter, and thereafter filling meso pores of the raw food grains by a homogenized fortification solution having molecular size of 2-5 nm in diameter, wherein said meso pores are 2-5 nm in diameter.
An offshore-wind-turbine installing ship comprising a support rack and having two mounting spaces that allow the support rack to be mounted and secured to the mounting spaces and that are arranged side-by-side in a bow-to-stern direction on a deck on a first side of the ship, the support rack being configured for transporting a wind turbine made by assembling a tower, a nacelle, and turbine blades or a wind turbine made by assembling a tower and a nacelle to a wind-turbine installation sea area in a state in which the wind turbine is accommodated in the support rack, and for installing the wind turbine on a foundation installed in the wind-turbine installation sea area, wherein the support rack comprises a pair of left and right wind-turbine supporting structures (24, 25) that comprises: an overturning prevention support for supporting an outer circumferential surface of the tower to prevent the wind turbine from overturning, a bottom-portion support configured to support a flange provided in the accommodated tower at a position apart from the bottom end surface of the accommodated tower so as to receive the weight of the wind turbine, and wherein an on-board crane is disposed on the deck on a second side of the ship between the two mounting spaces, wherein one of the wind-turbine supporting structures positioned on a first side of the support rack and the other of the wind-turbine supporting structures positioned on a second side of the support rack are coupled by means of a hinge that is provided at a surface being in contact with the first side and the second side where the wind-turbine supporting structures (24, 25) are each provided and that extends in a vertical direction, and wherein the wind-turbine supporting structures (24, 25) are configured so as to be capable of being opened and closed around a rotation center of the hinge and being removed from the wind turbine in a state in which the tower is installed in the foundation. an overturning prevention support for supporting an outer circumferential surface of the tower to prevent the wind turbine from overturning, a bottom-portion support configured to support a flange provided in the accommodated tower at a position apart from the bottom end surface of the accommodated tower so as to receive the weight of the wind turbine, and wherein an on-board crane is disposed on the deck on a second side of the ship between the two mounting spaces, wherein one of the wind-turbine supporting structures positioned on a first side of the support rack and the other of the wind-turbine supporting structures positioned on a second side of the support rack are coupled by means of a hinge that is provided at a surface being in contact with the first side and the second side where the wind-turbine supporting structures (24, 25) are each provided and that extends in a vertical direction, and wherein the wind-turbine supporting structures (24, 25) are configured so as to be capable of being opened and closed around a rotation center of the hinge and being removed from the wind turbine in a state in which the tower is installed in the foundation.
A light emitting device comprising: an element comprising a volumetric low scattering material, the element comprising opposite first and second light incoupling surfaces (21, 22) and a circumferential surface extending between and connecting the first and second light incoupling surfaces, at least one red laser diode configured to, in operation, emit red laser light, and being arranged at one of the first and second light incoupling surfaces such that the red laser light is coupled into the element through the said one of the first and second light incoupling surfaces, a collimator arranged and configured to collimate the red laser light into collimated red laser light, at least one LED (5, 51, 52, 53) configured to, in operation, emit LED light, the at least one LED being arranged at one of the first and second light incoupling surfaces, such that the LED light is coupled into the element through the said one of the first and second light incoupling surfaces, and the volumetric low scattering material of the element being configured to make the path of laser light visible. an element comprising a volumetric low scattering material, the element comprising opposite first and second light incoupling surfaces (21, 22) and a circumferential surface extending between and connecting the first and second light incoupling surfaces, at least one red laser diode configured to, in operation, emit red laser light, and being arranged at one of the first and second light incoupling surfaces such that the red laser light is coupled into the element through the said one of the first and second light incoupling surfaces, a collimator arranged and configured to collimate the red laser light into collimated red laser light, at least one LED (5, 51, 52, 53) configured to, in operation, emit LED light, the at least one LED being arranged at one of the first and second light incoupling surfaces, such that the LED light is coupled into the element through the said one of the first and second light incoupling surfaces, and the volumetric low scattering material of the element being configured to make the path of laser light visible.
Chromatography column distribution system comprising a fluid distribution plate in the form of a disk having a central orifice and comprising a set of first bed support ribs and at least one set of intermediate bed support ribs (117, 119), the set of first bed support ribs extending radially from an inner, first radial position near the centre of the plate to an outer radial position near to the periphery of the plate and the at least one set of intermediate bed support ribs (117, 119) starting at an intermediate radial position (R2, R3) and extending to the outer radial position near to the periphery of the plate, whereby channels are formed between adjacent bed support ribs (107, 117, 119), wherein said first bed support ribs have a height which has a maximum at or near the first radial position and which has a minimum at or near the outer radial position, wherein said channels have a local effective channel height defined as the height of a rib free channel providing the same cross sectional area for fluid flow as the total cross-sectional area of all the channels at the same radial distance from the centre, and wherein a desired local effective channel height is defined to decrease linearly from said first radial position R1 to said outer radial position, wherein the transverse cross sectional areas of said ribs (107,117, 119) or said channels are adapted such that the maximum difference between the actual local effective channel height of said channels, and the desired linearly decreasing local effective channel height, is within 15% of the desired linearly decreasing local effective channel height over portions of the distribution system situated between said first radial position and said outer radial position, wherein the total length of said portions correspond to at least 80% of the distance between said first radial position and said outer radial position, and wherein said intermediate support ribs include tapered portions, wherein the width of each rib of the set of first ribs at a position along its length where it is adjacent a tapered portion of a respective intermediate support rib is adapted so that the maximum difference between the actual and desired local effective channel height is within said 15% of the desired local effective channel height.
A battery module, comprising: a cell stack including a plurality of battery cells and at least one pad composite interposed between neighboring battery cells; and a module case configured to accommodate the cell stack, wherein the pad composite includes: a pair of swelling absorption pads compressed according to a volume expansion of the battery cell caused by swelling; and a heat shielding pad interposed between the pair of swelling absorption pads to block heat transfer between the neighboring battery cells and configured to expand at a preset reference temperature or above, wherein the swelling absorption pad is shrunken at the reference temperature or above to reduce a thickness, and wherein the heat shielding pad is expanded at the reference temperature or above to fill the space created by shrinkage of the swelling absorption pad, and wherein the reference temperature is within the range of about 100 °C to 300 °C. a cell stack including a plurality of battery cells and at least one pad composite interposed between neighboring battery cells; and a module case configured to accommodate the cell stack, wherein the pad composite includes: a pair of swelling absorption pads compressed according to a volume expansion of the battery cell caused by swelling; and a heat shielding pad interposed between the pair of swelling absorption pads to block heat transfer between the neighboring battery cells and configured to expand at a preset reference temperature or above, wherein the swelling absorption pad is shrunken at the reference temperature or above to reduce a thickness, and wherein the heat shielding pad is expanded at the reference temperature or above to fill the space created by shrinkage of the swelling absorption pad, and wherein the reference temperature is within the range of about 100 °C to 300 °C. a pair of swelling absorption pads compressed according to a volume expansion of the battery cell caused by swelling; and a heat shielding pad interposed between the pair of swelling absorption pads to block heat transfer between the neighboring battery cells and configured to expand at a preset reference temperature or above, wherein the swelling absorption pad is shrunken at the reference temperature or above to reduce a thickness, and wherein the heat shielding pad is expanded at the reference temperature or above to fill the space created by shrinkage of the swelling absorption pad, and wherein the reference temperature is within the range of about 100 °C to 300 °C.
Method for identifying a loosened wheel bolt arrangement on a wheel of a vehicle, wherein an angular velocity of a hub of the wheel is evaluated, wherein a wheel-periodic modulation of the angular velocity is ascertained, characterized in that an oscillation of the wheel caused due to the loosened wheel bolt arrangement is identified using a change in a phase angle of the modulation, wherein the loosened wheel bolt arrangement is identified when the phase angle cumulatively changes by at least one expected angular step.
Lyocell denim made from weft yarns and warp yarns, wherein denim is a fabric which is woven as a warp-faced textile having a twill pattern, wherein the warp yarns consist of 100 % lyocell filaments, and in that the lyocell denim comprises at least 70 % lyocell filaments, wherein the denim scores at least one at least 15,000 cycles to hole formation in a Martindale abrasion test according to DIN EN ISO 12947-2 in the fixed state and 8,000 cycles to hole formation in a Martindale abrasion test according to DIN EN ISO 12947-2 after garment wash and/or after bleaching.
A power optimization method, performed by a power optimization apparatus, the method comprising: detecting a connection architecture of a photovoltaic assembly; performing a Maximum Power Point Tracking, MPPT, processing on a photovoltaic assembly according to an operating parameter of the photovoltaic assembly under a condition that the photovoltaic assembly adopts a series architecture, wherein the photovoltaic assembly is in one-to-one correspondence with the power optimization apparatus; controlling the photovoltaic assembly according to a result of the MPPT processing to optimize a power state of the photovoltaic assembly; detecting whether the operating parameter of the photovoltaic assembly is less than a parameter threshold, wherein the operating parameter of the photovoltaic assembly comprises a voltage value or a current value of the photovoltaic assembly; entering a constant voltage protection mode to control the photovoltaic assembly to output a constant voltage under a condition that the operating parameter of the photovoltaic assembly is less than the parameter threshold; detecting whether the operating parameter of the photovoltaic assembly is still less than the parameter threshold after a preset time after entering the constant voltage protection mode; and exiting the constant voltage protection mode to perform the MPPT processing on the photovoltaic assembly under a condition that the operating parameter of the photovoltaic assembly is not less than the parameter threshold. detecting a connection architecture of a photovoltaic assembly; performing a Maximum Power Point Tracking, MPPT, processing on a photovoltaic assembly according to an operating parameter of the photovoltaic assembly under a condition that the photovoltaic assembly adopts a series architecture, wherein the photovoltaic assembly is in one-to-one correspondence with the power optimization apparatus; controlling the photovoltaic assembly according to a result of the MPPT processing to optimize a power state of the photovoltaic assembly; detecting whether the operating parameter of the photovoltaic assembly is less than a parameter threshold, wherein the operating parameter of the photovoltaic assembly comprises a voltage value or a current value of the photovoltaic assembly; entering a constant voltage protection mode to control the photovoltaic assembly to output a constant voltage under a condition that the operating parameter of the photovoltaic assembly is less than the parameter threshold; detecting whether the operating parameter of the photovoltaic assembly is still less than the parameter threshold after a preset time after entering the constant voltage protection mode; and exiting the constant voltage protection mode to perform the MPPT processing on the photovoltaic assembly under a condition that the operating parameter of the photovoltaic assembly is not less than the parameter threshold.
A method for operating a block storage arrangement that has multiple container stacking chambers, a loading chamber arranged below the container stacking chambers, a control device and at least one loading vehicle that can be moved in the loading chamber, wherein the loading vehicle has a travel drive, by means of which the loading vehicle can be positioned below a container stacking chamber preselected by the control device, and a lifting drive, by means of which a container can be stored in the container stacking chamber from below or can be removed downwards from the container stacking chamber, characterized in that the block storage arrangement is put into a secure state prior to access by a maintenance person by inactivating the lifting drive of the loading vehicle.
A method for adjusting power control step size of a mobile terminal, said method comprising: receiving signal condition data from a network entity; and adjusting said power control step size based on said signal condition data, wherein said signal condition data comprises transmission control information for subpackets transmitted in a plurality of packet transmissions, said transmission control information, for each of said plurality of packet transmissions including either: an acknowledgement ACK indicating a previous transmission by said mobile terminal was successfully received by said network entity, or a negative-acknowledgement NACK indicating said previous transmission by said mobile terminal was not successfully received by said network entity; and wherein said adjusting further comprises: receiving a power level command for each of said plurality of packet transmissions from said network entity, the power level command including a power UP command indicating that said mobile terminal is to increase power, or a power DOWN command indicating that said mobile terminal is to decrease power; and decreasing said step size if transmission control information associated with a first subpacket of said plurality of packet transmissions includes a transmission acknowledgement ACK and a power level command associated with said first subpacket includes a power DOWN command. receiving signal condition data from a network entity; and adjusting said power control step size based on said signal condition data, wherein said signal condition data comprises transmission control information for subpackets transmitted in a plurality of packet transmissions, said transmission control information, for each of said plurality of packet transmissions including either: an acknowledgement ACK indicating a previous transmission by said mobile terminal was successfully received by said network entity, or a negative-acknowledgement NACK indicating said previous transmission by said mobile terminal was not successfully received by said network entity; and wherein said adjusting further comprises: an acknowledgement ACK indicating a previous transmission by said mobile terminal was successfully received by said network entity, or a negative-acknowledgement NACK indicating said previous transmission by said mobile terminal was not successfully received by said network entity; and wherein said adjusting further comprises: receiving a power level command for each of said plurality of packet transmissions from said network entity, the power level command including a power UP command indicating that said mobile terminal is to increase power, or a power DOWN command indicating that said mobile terminal is to decrease power; and decreasing said step size if transmission control information associated with a first subpacket of said plurality of packet transmissions includes a transmission acknowledgement ACK and a power level command associated with said first subpacket includes a power DOWN command.