mhurhangee/ep-ind-claims huggingface dataset:
System made up of vertical shading for attaching to a conservatory or a pergola and a conservatory profile, the vertical shading comprising a cloth roller which is rotatably mounted in a housing and from which a shading element or cloth or a fly screen, a transparent hanging, a roller blind or a fabric or the like can be unwound, the front end of the shading element or cloth being attached to an extendable profile which can be extended downwards, the housing comprising a projection (9, 10) which engages over or behind an attachment element, characterised in that a projection having a contour that is adapted to the profile part is integrally moulded to the housing, which contour engages over the upper edge of the profile part of the conservatory profile by means of a hook-shaped end piece.
A receiver operative in a multiple input, multiple output, MIMO, wireless communication network in which two or more streams of communication symbols are transmitted, said receiver comprising: a first whitening joint detector comprising a pre-filter operative to suppress a first subset of received MIMO streams as colored noise; said receiver being characterized in that it further comprises: a primary detector being a joint detector operative to process a second subset of MIMO streams that are different from the MIMO streams of the first subset, and to output a preliminary solution to the problem of recovering the transmitted symbols obtained by minimizing a whitening joint detection metric; wherein the receiver further comprises a secondary detector operating in the vicinity of the primary detector preliminary solution in terms of the Euclidean distance from said preliminary solution by using the output from the primary detector as an input, and being configured to minimize a full joint detection metric of the two or more streams by replacing the preliminary solution from the primary detector with a solution having smaller full joint detection metric. a first whitening joint detector comprising a pre-filter operative to suppress a first subset of received MIMO streams as colored noise; said receiver being characterized in that it further comprises: a primary detector being a joint detector operative to process a second subset of MIMO streams that are different from the MIMO streams of the first subset, and to output a preliminary solution to the problem of recovering the transmitted symbols obtained by minimizing a whitening joint detection metric; wherein the receiver further comprises a secondary detector operating in the vicinity of the primary detector preliminary solution in terms of the Euclidean distance from said preliminary solution by using the output from the primary detector as an input, and being configured to minimize a full joint detection metric of the two or more streams by replacing the preliminary solution from the primary detector with a solution having smaller full joint detection metric. a primary detector being a joint detector operative to process a second subset of MIMO streams that are different from the MIMO streams of the first subset, and to output a preliminary solution to the problem of recovering the transmitted symbols obtained by minimizing a whitening joint detection metric; wherein the receiver further comprises a secondary detector operating in the vicinity of the primary detector preliminary solution in terms of the Euclidean distance from said preliminary solution by using the output from the primary detector as an input, and being configured to minimize a full joint detection metric of the two or more streams by replacing the preliminary solution from the primary detector with a solution having smaller full joint detection metric.
An arrangement comprising a medical module designed as a filter, a blood filter, a dialyzer, a cartridge, a gas exchanger or an adsorber, comprising at least one first holder for releasably holding the module to a medical treatment apparatus, and comprising at least one second holder, wherein the module is releasably connected with the first holder and with the second holder, and wherein the first holder and the second holder each comprise at least one first reception unit (101a, 102a) and each comprise a second reception unit (101b, 102b), and wherein the second holder is connected both with the module and with at least one further module or with an adapter for receiving a further module.
A material delivery device for an additive manufacturing device adapted for manufacturing objects through deposition of additive material over a build surface, wherein the additive manufacturing device comprises: - an electric power source; - a material feeding conduit comprising an inner tube and an outer tube, wherein the material feeding conduit feeds the inner tube with the additive material and the inner tube and the outer tube are electrically connected to the electric power source; and wherein the material delivery device is in electrical and mechanical contact with the material feeding conduit, the material delivery device comprising: - an inner funnel having a large aperture and a small aperture whereby the inner funnel is configured to guide the additive material from the large aperture to the small aperture, and - an outer funnel located external to the inner funnel, the outer funnel having a small aperture wherein the outer funnel is joined to the inner funnel about the small aperture of the inner funnel and the small aperture of the outer funnel, the outer funnel having a large aperture which is configured to be in electrical and mechanical contact with the outer tube and wherein the large aperture of the inner funnel is in electrical and mechanical contact with the inner tube; wherein the inner funnel is electrically conductive and, upon applying an electrical current to the inner funnel, heat is generated thereby heating the additive material travelling in the inner funnel. - an electric power source; - a material feeding conduit comprising an inner tube and an outer tube, wherein the material feeding conduit feeds the inner tube with the additive material and the inner tube and the outer tube are electrically connected to the electric power source; - an inner funnel having a large aperture and a small aperture whereby the inner funnel is configured to guide the additive material from the large aperture to the small aperture, and - an outer funnel located external to the inner funnel, the outer funnel having a small aperture wherein the outer funnel is joined to the inner funnel about the small aperture of the inner funnel and the small aperture of the outer funnel, the outer funnel having a large aperture which is configured to be in electrical and mechanical contact with the outer tube and wherein the large aperture of the inner funnel is in electrical and mechanical contact with the inner tube; wherein the inner funnel is electrically conductive and, upon applying an electrical current to the inner funnel, heat is generated thereby heating the additive material travelling in the inner funnel.
A capacity control valve comprising: a valve housing (10, 11, 210, 211, 310, 311, 410, 411, 510, 511, 610, 611, 612) to which a suction fluid of a suction pressure (Ps) and a control fluid of a control pressure (Pc) are supplied; a solenoid; a CS valve formed of a CS valve body that partitions an inside of the valve housing into a first space and a second space and moves according to the suction pressure (Ps) of the suction fluid and the control pressure (Pc) of the control fluid, and a CS valve seat (10a, 210a, 310a, 455a, 510a, 610a) with which the CS valve body (51, 451, 551, 651) is configured for coming into contact; and a biasing member that biases the CS valve body in a valve closing direction of the CS valve; characterized in that the capacity control valve further comprises a pilot valve formed of a pilot valve body to be driven by the solenoid and a pilot valve seat (11a, 211a, 612a) with which the pilot valve body is configured for coming into contact, wherein the control fluid flows into the first space, the control fluid flows into the second space via an orifice (51c, 451c, 551c, 651c), and a fluid of the second space is dischargeable to an outside by the pilot valve. a valve housing (10, 11, 210, 211, 310, 311, 410, 411, 510, 511, 610, 611, 612) to which a suction fluid of a suction pressure (Ps) and a control fluid of a control pressure (Pc) are supplied; a solenoid; a CS valve formed of a CS valve body that partitions an inside of the valve housing into a first space and a second space and moves according to the suction pressure (Ps) of the suction fluid and the control pressure (Pc) of the control fluid, and a CS valve seat (10a, 210a, 310a, 455a, 510a, 610a) with which the CS valve body (51, 451, 551, 651) is configured for coming into contact; and a biasing member that biases the CS valve body in a valve closing direction of the CS valve; characterized in that the capacity control valve further comprises a pilot valve formed of a pilot valve body to be driven by the solenoid and a pilot valve seat (11a, 211a, 612a) with which the pilot valve body is configured for coming into contact, wherein the control fluid flows into the first space, the control fluid flows into the second space via an orifice (51c, 451c, 551c, 651c), and a fluid of the second space is dischargeable to an outside by the pilot valve.
A highly functional polyethylene fiber, wherein an intrinsic viscosity [η] is higher than or equal to 0.8 dL/g, and not higher than 4.9 dL/g, ethylene is substantially contained as a repeating unit thereof, and a maximum thermal shrinkage stress is less than or equal to 0.4 cN/dtex in TMA (thermo-mechanical analysis), and a thermal shrinking percentage at 100°C is less than or equal to 2.5%, wherein the intrinsic viscosity, the maximum thermal shrinkage stress,and the thermal shrinking percentage are measured by the method specified in the description.
A method for screen content decoding based on a screen content coding process, the method comprising: receiving a video bitstream comprising at least one of a palette table and a color index map; decoding the at least one of the palette table and the color index map; and reconstructing pixels associated with a current coding unit based on the at least one of the palette table and the color index map, wherein the palette table encoded is derived by applying a hash-based grouping process on histogram-ordered color data to represent similar colors with a common entry in the palette table, the hash-based grouping process comprising: generating a hash representation of each color component using a hash function, the hash function comprising one of (G>>X<<(16+X))|(B>>X<<(8+X))|(R>>X<<X) or (Y>>X<<(16+X))|(Cb>>X<<(8+X))|(Cr>>X<<X), where X represents least significant bits and depends on quantization parameter, wherein G, B, R, Y, Cb and Cr are color components, >> is a right bit shift operation, and << is a left bit shift operation; associating each color to its representation hash value, and retrieving one or more colors from a given hash value. receiving a video bitstream comprising at least one of a palette table and a color index map; decoding the at least one of the palette table and the color index map; and reconstructing pixels associated with a current coding unit based on the at least one of the palette table and the color index map, wherein the palette table encoded is derived by applying a hash-based grouping process on histogram-ordered color data to represent similar colors with a common entry in the palette table, the hash-based grouping process comprising: generating a hash representation of each color component using a hash function, the hash function comprising one of (G>>X<<(16+X))|(B>>X<<(8+X))|(R>>X<<X) or (Y>>X<<(16+X))|(Cb>>X<<(8+X))|(Cr>>X<<X), where X represents least significant bits and depends on quantization parameter, wherein G, B, R, Y, Cb and Cr are color components, >> is a right bit shift operation, and << is a left bit shift operation; associating each color to its representation hash value, and retrieving one or more colors from a given hash value. generating a hash representation of each color component using a hash function, the hash function comprising one of (G>>X<<(16+X))|(B>>X<<(8+X))|(R>>X<<X) or (Y>>X<<(16+X))|(Cb>>X<<(8+X))|(Cr>>X<<X), where X represents least significant bits and depends on quantization parameter, wherein G, B, R, Y, Cb and Cr are color components, >> is a right bit shift operation, and << is a left bit shift operation; associating each color to its representation hash value, and retrieving one or more colors from a given hash value.
A method performed by a scheduler in a base station for scheduling wireless transmissions to or from a plurality of wireless terminals of an Orthogonal Frequency Division Multiplexing, OFDM, system, said method comprising: for each of a plurality of sub-bands, determining a scheduling weight for each user terminal as a function of channel quality metrics indicative of channel conditions for the user terminals for each of said sub-bands and service quality metrics indicative of a service quality state for the user terminals; for each of said plurality of sub-bands, assigning sub-band specific scheduling priorities to the user terminals indicating the respective priorities of said user terminals; generating a sub-band pre-allocation schedule based on the sub-band specific scheduling priorities; allocating sub-bands, to the user terminals in accordance with the sub-band pre-allocation schedule, during a first iteration based on the sub-band specific scheduling priorities; and redistributing a pre-allocated sub-band from a first user terminal having insufficient data to use the pre-allocated sub-band to a second user terminal having data in excess of the capacity of its pre-allocated sub-bands. for each of a plurality of sub-bands, determining a scheduling weight for each user terminal as a function of channel quality metrics indicative of channel conditions for the user terminals for each of said sub-bands and service quality metrics indicative of a service quality state for the user terminals; for each of said plurality of sub-bands, assigning sub-band specific scheduling priorities to the user terminals indicating the respective priorities of said user terminals; generating a sub-band pre-allocation schedule based on the sub-band specific scheduling priorities; allocating sub-bands, to the user terminals in accordance with the sub-band pre-allocation schedule, during a first iteration based on the sub-band specific scheduling priorities; and redistributing a pre-allocated sub-band from a first user terminal having insufficient data to use the pre-allocated sub-band to a second user terminal having data in excess of the capacity of its pre-allocated sub-bands.
A rhinovaccination system of influenza vaccine, comprising a metered-dose syringe-based squirt filled with an influenza vaccine composition which comprises (i) an inactivated whole influenza virion, and (ii) a gel base material comprising carboxy vinyl polymer which has a viscosity of 50 mPa·s to 5000 mPa·s at 20°C, which is characterized by not comprising an adjuvant; wherein the metered-dose syringe-based squirt is a medical syringe having a tip opening in fluid communication with a syringe barrel, which is equipped with a rhinal spray nozzle comprising a hollow nozzle body having a tip portion defining a nozzle orifice thereon, a solid packing rod arranged within the nozzle body, and a nozzle chamber defined between the packing rod and the nozzle body to allow a fluid communication between the tip opening and the nozzle orifice, wherein the nozzle orifice has a diameter in a range between 0.25 mm and 0.30 mm. wherein the metered-dose syringe-based squirt is a medical syringe having a tip opening in fluid communication with a syringe barrel, which is equipped with a rhinal spray nozzle comprising a hollow nozzle body having a tip portion defining a nozzle orifice thereon, a solid packing rod arranged within the nozzle body, and a nozzle chamber defined between the packing rod and the nozzle body to allow a fluid communication between the tip opening and the nozzle orifice, wherein the nozzle orifice has a diameter in a range between 0.25 mm and 0.30 mm.
An intraocular shunt delivery device comprising: a housing; a deployment mechanism at least partially disposed within the housing, the deployment mechanism comprising a rotating portion, a pusher component, and a retraction component, the rotating portion being disposed within the housing and comprising first and second channels (113b, 113a), the pusher component comprising a first member that resides within the first channel to couple the pusher component with the rotating portion, the retraction component comprising a second member that resides within the second channel to couple the retraction component with the rotating portion; and a hollow shaft, coupled to the deployment mechanism, wherein the shaft is configured to hold an intraocular shunt; wherein upon rotation of the rotating portion, the pusher component is engaged in a first stage and the retraction component is engaged in a second stage, wherein in the first stage, rotation of the rotating portion causes distal axial movement of the first member, thereby urging the pusher component in a distal axial direction to advance the shunt partially from within the shaft, and wherein in the second stage, further rotation of the rotating portion causes proximal axial movement of the second member, thereby urging the shaft in a proximal axial direction. a housing; a deployment mechanism at least partially disposed within the housing, the deployment mechanism comprising a rotating portion, a pusher component, and a retraction component, the rotating portion being disposed within the housing and comprising first and second channels (113b, 113a), the pusher component comprising a first member that resides within the first channel to couple the pusher component with the rotating portion, the retraction component comprising a second member that resides within the second channel to couple the retraction component with the rotating portion; and a hollow shaft, coupled to the deployment mechanism, wherein the shaft is configured to hold an intraocular shunt; wherein upon rotation of the rotating portion, the pusher component is engaged in a first stage and the retraction component is engaged in a second stage, wherein in the first stage, rotation of the rotating portion causes distal axial movement of the first member, thereby urging the pusher component in a distal axial direction to advance the shunt partially from within the shaft, and wherein in the second stage, further rotation of the rotating portion causes proximal axial movement of the second member, thereby urging the shaft in a proximal axial direction.
A support structure for electrically-powered light radiation sources, the structure comprising: - a light-permeable laminar substrate having opposed surfaces with light radiation source mounting locations at at least one of the opposed surfaces, - electrically-conductive formations extending towards the light radiation source mounting locations at at least one of the opposed surfaces of the laminar substrate, the electrically-conductive formations comprising light-reflective material, wherein the electrically-conductive formations comprise etched or deposited electrically-conductive material, and - an anti-reflective covering (20, 22, 24) applied onto the electrically-conductive formations on the side opposite the light-permeable laminar substrate. - a light-permeable laminar substrate having opposed surfaces with light radiation source mounting locations at at least one of the opposed surfaces, - electrically-conductive formations extending towards the light radiation source mounting locations at at least one of the opposed surfaces of the laminar substrate, the electrically-conductive formations comprising light-reflective material, wherein the electrically-conductive formations comprise etched or deposited electrically-conductive material, and - an anti-reflective covering (20, 22, 24) applied onto the electrically-conductive formations on the side opposite the light-permeable laminar substrate.
Hand tool, in particular hammer drill, percussion hammer or saw, having a drive and having a stroke-generating element, wherein the drive is configured to move the stroke-generating element in particular periodically in a reciprocating movement along a translation axis, wherein the hand tool has at least one counterweight which is operatively connected to the drive such that forces caused at least indirectly at least by the reciprocating movement can be at least partially compensated, wherein the counterweight is mounted so as to be movable, in particular movable in a reciprocating movement, coaxially with or parallel to the translation axis, characterized in that the counterweight is connected to a guide rail and is mounted so as to be movable in a reciprocating movement by means of the guide rail, wherein the counterweight has a slot in which the guide rail can engage in a form-fitting manner such that the counterweight can execute a reciprocating movement in the direction of the slot.
A herbicidal composition comprising a herbicidally effective amount of: (a) aminopyralid, a compound of the formula or an agriculturally acceptable salt or ester of thereof, and (b) triclopyr choline salt, a choline salt of a compound of the formula (a) aminopyralid, a compound of the formula or an agriculturally acceptable salt or ester of thereof, and (b) triclopyr choline salt, a choline salt of a compound of the formula
System comprising a high-pressure washing liquid ejecting washing apparatus and an object to be washed, the apparatus comprising a bar-shaped holder; and a plurality of high-pressure washing liquid ejecting nozzles arranged at constant intervals along a longitudinal direction of the bar-shaped holder, the holder being supported at both sides in a longitudinal direction thereof such that the holder is rotatable around its longitudinal axis, the apparatus being configured such that the holder is reciprocatingly rotatable around the longitudinal axis within a predetermined rotational angle (d) and that the ejecting nozzles can eject a high-pressure washing liquid to a to-be-washed surface of the object in a single straight-line shape to wash the object while the object is conveyed at a constant speed in a conveying direction with respect to the holder, wherein the holder has a length which is not less than a length in width direction across the object, the width direction being orthogonal to the conveying direction, such that both the longitudinal ends of the holder protrude from the object when viewed from above in a normal line direction of the surface to be washed characterized in that the holder is disposed such that the holder is tilted with respect to the conveying direction by having an angle (α) between the longitudinal direction of the holder and the width direction, when viewed from above in the normal line direction of the surface to be washed.
A method for the in vitro diagnosis of colorectal cancer by determining decrease of the concentration of the Apolipoprotein AII marker in a biological sample taken from a patient suspected of having colorectal cancer, relative to the reference values determined for healthy patients, the sample being a sample that is remote from the tumor.